mhurhangee/ep-ind-claims huggingface dataset:
A handling device (10, 150) for fuel hoses, comprising at least - a base structure, - a first guide element, which is mounted on the base structure so as to be movable in at least one degree of freedom, - a first holding element, which is mounted on a preceding, additional guide element so as to be movable in at least one degree of freedom, and - a fastening element (130, 140), which is assigned to the first holding element and serves for receiving the fuel hose, wherein the device comprises at least one additional holding element with at least one fastening element (130, 140), which is assigned to the additional holding element and serves for receiving an additional fuel hose, and wherein the holding elements (70, 80) are mounted on the preceding guide element independently of one another so as to be respectively movable in at least one degree of freedom. - a base structure, - a first guide element, which is mounted on the base structure so as to be movable in at least one degree of freedom, - a first holding element, which is mounted on a preceding, additional guide element so as to be movable in at least one degree of freedom, and - a fastening element (130, 140), which is assigned to the first holding element and serves for receiving the fuel hose,
An optical element which is a diffractive optical element or a diffuser in an active light emitting module, comprising a substrate, wherein the optical element further comprises a detection line disposed on the substrate, and the detection line is configured to transmit an electrical signal; wherein the detection line extends in a fold line shape or a spiral line shape disposed on the substrate, the detection line being arranged such that when the detection line is broken, the resistance value of the detection line becomes very large or infinite, wherein the resistance value of the detection line is measured between two ends of the detection line; a value of the width of the detection line ranges from 30 μm to 100 μm; a distance between two adjacent and parallel line segments of the detection line ranges from 30 μm to 100 μm; wherein the optical element is configured such that it can be determined that the optical element is damaged by detecting that the detection line is broken in which case the monitored resistance value of the detection line becomes very large or infinite. wherein the detection line extends in a fold line shape or a spiral line shape disposed on the substrate, the detection line being arranged such that when the detection line is broken, the resistance value of the detection line becomes very large or infinite, wherein the resistance value of the detection line is measured between two ends of the detection line; a value of the width of the detection line ranges from 30 μm to 100 μm; a distance between two adjacent and parallel line segments of the detection line ranges from 30 μm to 100 μm; wherein the optical element is configured such that it can be determined that the optical element is damaged by detecting that the detection line is broken in which case the monitored resistance value of the detection line becomes very large or infinite.
A method of preparing a matrix assisted laser desorption ionisation mass spectrometry imaging (MALDI-MSI) fingermark sample suitable to obtain a chemical image of a fingermark via MALDI-MSI, the method comprising: dusting a fingermark sample with a MALDI-MSI matrix powder; then removing excess matrix powder from the fingermark sample such that the matrix powder acts as an enhancer of a ridge pattern of the fingermark sample; spraying the dusted fingermark sample with a solvent in which both the matrix powder and the fingermark sample are soluble to provide co-crystallisation of the matrix powder with analytes of the fingermark sample at the ridges of the ridge pattern to minimise analyte delocalisation. dusting a fingermark sample with a MALDI-MSI matrix powder; then removing excess matrix powder from the fingermark sample such that the matrix powder acts as an enhancer of a ridge pattern of the fingermark sample; spraying the dusted fingermark sample with a solvent in which both the matrix powder and the fingermark sample are soluble to provide co-crystallisation of the matrix powder with analytes of the fingermark sample at the ridges of the ridge pattern to minimise analyte delocalisation.
An in vitro method for stimulating the Felidae T1R1/T1R3 receptor comprising: contacting said receptor with pyrophosphate and one or more amino acids selected from Lysine, Alanine, and Proline, said pyrophosphate being present at a final concentration equal to or greater than 20mM, thereby eliciting a response of said receptor. contacting said receptor with pyrophosphate and one or more amino acids selected from Lysine, Alanine, and Proline, said pyrophosphate being present at a final concentration equal to or greater than 20mM,
A rotorcraft rotor comprising a plurality of blades mounted to be movable on a hub by means of blade roots which are respectively associated therewith, the blades being mobile in pivoting on themselves and in tilting orientations in flapping and in lag respectively, said rotor being equipped with an information capture apparatus comprising at least one strain gauge (7, 8) which generates information arising from the movement behaviour of the blades in any one at least of the orientations in flapping and/or in lag, characterised in that the information capture apparatus comprises at least one measurement assembly (E1, E2, E3, E4) comprising a flexible bar on which is implanted at least one strain gauge (7, 8) which generates information relative to the deflection of the bar in any one at least of said orientations in flapping and/or in lag, the bar being interposed engaged at its respective ends between the hub and a blade root which is associated therewith.
A process for synthesis of 4-4'-disulfonic acid-3-pentadecyl diphenyl ether from 3-pentadecyl phenol obtained from Cashew Nut Shell Liquid, wherein the process comprises: a) hydrogenating cardanol with 5% Pd/C in presence of alcoholic solvent selected from the group consisting of methanol, ethanol and isopropanol at 70°C under 41.36 bar (600 psi) hydrogen pressure to obtain 3-pentadecyl phenol; b) refluxing 3-pentadecyl phenol with alkali metal hydroxide in presence of a polar and a non-polar solvent for 7-8 hrs followed by removal of water from the mixture azeotropically and distilling off the solvent to obtain the alkali metal salt of 3-pentadecyl phenol; c) arylating alkali metal salt of 3-pentadecyl phenol in presence of bromobenzene and copper powder in a solvent to obtain 1-pentadecyl-3-phenoxy benzene; and d) sulphonating 1-pentadecyl-3-phenoxy benzene with oleum at 10°C for 25-35min followed by raising the temperature to 70°C for 6-8 h to obtain 4-4'-disulfonic acid-3-pentadecyl diphenyl ether. a) hydrogenating cardanol with 5% Pd/C in presence of alcoholic solvent selected from the group consisting of methanol, ethanol and isopropanol at 70°C under 41.36 bar (600 psi) hydrogen pressure to obtain 3-pentadecyl phenol; b) refluxing 3-pentadecyl phenol with alkali metal hydroxide in presence of a polar and a non-polar solvent for 7-8 hrs followed by removal of water from the mixture azeotropically and distilling off the solvent to obtain the alkali metal salt of 3-pentadecyl phenol; c) arylating alkali metal salt of 3-pentadecyl phenol in presence of bromobenzene and copper powder in a solvent to obtain 1-pentadecyl-3-phenoxy benzene; and d) sulphonating 1-pentadecyl-3-phenoxy benzene with oleum at 10°C for 25-35min followed by raising the temperature to 70°C for 6-8 h to obtain 4-4'-disulfonic acid-3-pentadecyl diphenyl ether.
A forceps, for electrosurgical procedures comprising: a pair of jaw members (124a, 124b) selectively positionable relative to one another about a pivot, each of the jaw members including an electrically conductive tissue engaging surface adapted to connect to an electrosurgical energy source, wherein each jaw member has a blade channel defined therein; a cutting blade configured to selectively translate within the blade channels; and characterized by: an alarm operatively coupled to the cutting blade and configured to emit a signal when the cutting blade is deployed into the blade channels, wherein the emission of the signal is independent of the activation of the electrosurgical energy source. a pair of jaw members (124a, 124b) selectively positionable relative to one another about a pivot, each of the jaw members including an electrically conductive tissue engaging surface adapted to connect to an electrosurgical energy source, wherein each jaw member has a blade channel defined therein; a cutting blade configured to selectively translate within the blade channels; and characterized by: an alarm operatively coupled to the cutting blade and configured to emit a signal when the cutting blade is deployed into the blade channels, wherein the emission of the signal is independent of the activation of the electrosurgical energy source. an alarm operatively coupled to the cutting blade and configured to emit a signal when the cutting blade is deployed into the blade channels, wherein the emission of the signal is independent of the activation of the electrosurgical energy source.
A digitally compensated phase locked oscillator, DCPLO, comprising: a DCPLO input for receiving a reference signal at a known frequency; a DCPLO output for outputting a signal at a desired frequency; a phased locked loop, PLL,, the phased locked loop comprising: a phase frequency detector; an oscillator; a PLL output coupled to the output; an image rejection mixer coupled between the oscillator and the phase frequency detector; and a power splitter, PS, having an input coupled to an output of the image rejection mixer, a first PS output coupled to the phase frequency detector and a second PS output coupled to the DCPLO output; a first direct digital synthesizer, DDS, comprising a dual channel DDS (DDS1b, DDS1a) having two outputs in quadrature for driving an IF port of the image rejection mixer to supply a DDS signal to the PLL for adjusting a frequency within the PLL; a temperature sensor; a processor coupled to the first DDS, the phase frequency detector, and the temperature sensor; and wherein the processor is configured to: set the frequency of the first DDS according to a temperature sensed by the temperature sensor so as to maintain the PLL in a phase locked state and at the center frequency of a lock range, the center frequency of the lock range having the lowest phase noise within an operational temperature range of the DCPLO. a DCPLO input for receiving a reference signal at a known frequency; a DCPLO output for outputting a signal at a desired frequency; a phased locked loop, PLL,, the phased locked loop comprising: a phase frequency detector; an oscillator; a PLL output coupled to the output; an image rejection mixer coupled between the oscillator and the phase frequency detector; and a power splitter, PS, having an input coupled to an output of the image rejection mixer, a first PS output coupled to the phase frequency detector and a second PS output coupled to the DCPLO output; a phase frequency detector; an oscillator; a PLL output coupled to the output; an image rejection mixer coupled between the oscillator and the phase frequency detector; and a power splitter, PS, having an input coupled to an output of the image rejection mixer, a first PS output coupled to the phase frequency detector and a second PS output coupled to the DCPLO output; a first direct digital synthesizer, DDS, comprising a dual channel DDS (DDS1b, DDS1a) having two outputs in quadrature for driving an IF port of the image rejection mixer to supply a DDS signal to the PLL for adjusting a frequency within the PLL; a temperature sensor; a processor coupled to the first DDS, the phase frequency detector, and the temperature sensor; and wherein the processor is configured to: set the frequency of the first DDS according to a temperature sensed by the temperature sensor so as to maintain the PLL in a phase locked state and at the center frequency of a lock range, the center frequency of the lock range having the lowest phase noise within an operational temperature range of the DCPLO.
A system for creating a risk analysis for at least one turbomachine, the system comprising: a database storing characteristics of one or more turbomachines; a processing module coupled to the database that receives the characteristics from the database and creates the risk analysis, the processing module including: a modeling module that creates a representation of the amount of airfoil rocking in a particular turbomachine based on the characteristics; and a performance modeler coupled to the modeling module and that, based on the representation of the amount of rocking, creates the risk analysis. a database storing characteristics of one or more turbomachines; a processing module coupled to the database that receives the characteristics from the database and creates the risk analysis, the processing module including: a modeling module that creates a representation of the amount of airfoil rocking in a particular turbomachine based on the characteristics; and a performance modeler coupled to the modeling module and that, based on the representation of the amount of rocking, creates the risk analysis. a modeling module that creates a representation of the amount of airfoil rocking in a particular turbomachine based on the characteristics; and a performance modeler coupled to the modeling module and that, based on the representation of the amount of rocking, creates the risk analysis.
A composition comprising an agonist anti-ICOS antibody for use in treating cancer in a patient, wherein said agonist anti-ICOS antibody is for use in combination with a blocking agent to a T cell inhibitory receptor selected from the group consisting of an anti-CTLA-4 antibody and an anti-PD-L1 antibody that blocks binding of PD-1 to PD-L1 and inhibits PD-1 signalling.
A method of manufacturing a metallic container, comprising: forming a container body in a preferred shape, said container body comprised of a bottom portion, a sidewall portion, a neck portion extending upwardly from said sidewall portion, and an opening positioned on an uppermost portion of said neck portion; characterized by inserting a threaded closure into said opening of said neck portion, said threaded closure comprised of a closure body adapted to be inserted at least partially into said opening of said neck portion, said closure body having closure threads formed on at least a portion of an outer surface of said closure body; forming container threads on at least a portion of said neck portion of said container body by applying a force against an exterior surface of said neck portion to compress said portion of said neck portion against said threaded closure, wherein said threaded closure is removably interconnected to said neck portion of said container body. forming a container body in a preferred shape, said container body comprised of a bottom portion, a sidewall portion, a neck portion extending upwardly from said sidewall portion, and an opening positioned on an uppermost portion of said neck portion; characterized by inserting a threaded closure into said opening of said neck portion, said threaded closure comprised of a closure body adapted to be inserted at least partially into said opening of said neck portion, said closure body having closure threads formed on at least a portion of an outer surface of said closure body; forming container threads on at least a portion of said neck portion of said container body by applying a force against an exterior surface of said neck portion to compress said portion of said neck portion against said threaded closure, wherein said threaded closure is removably interconnected to said neck portion of said container body.
A rounded nose end-mill having a rounded portion and a cutting edge extending along the rounded portion, the cutting edge being defined by a rake angle (α) and a relief angle (γ), characterised in that the rake angle (α) and the relief angle (γ) gradually increase along the cutting edge from the full diameter of the rounded portion to the tip.
Method for transferring structures onto a host substrate, the method comprising the following successive steps: a) supplying a support layer comprising two main faces called, respectively, first face and second face, structures, each comprising a front face and a rear face, being assembled by their front face on the first face; c) a step of transferring the structures onto a host face of a host substrate, the method being remarkable in that: the support layer comprises folding regions, between the structures, adapted to pass, in a reversible manner, from a folded state to an unfolded state under the action of an external excitation, the method further comprises, between steps a) and c), a step b) of executing the external action in such a way as to make the folding regions pass from one or the other of the folded or unfolded states to the other of the folded or unfolded states such that the spacing between the relative positions of the structures with respect to each other varies before the execution of step c), the support layer further comprises an intermediate layer adapted, under the action of the external excitation, to vary its stress state, and thereby generate the passage from one or the other of the folded and unfolded states to the other of these two states, the support layer comprises from its first face to its second face, a first layer, the intermediate layer, and a second layer, the first layer and the second layer, having, respectively, first trenches and second trenches at the level of which are inscribed folds at the level of the folding regions when the support layer is in the folded state. a) supplying a support layer comprising two main faces called, respectively, first face and second face, structures, each comprising a front face and a rear face, being assembled by their front face on the first face; c) a step of transferring the structures onto a host face of a host substrate, the support layer comprises folding regions, between the structures, adapted to pass, in a reversible manner, from a folded state to an unfolded state under the action of an external excitation, the method further comprises, between steps a) and c), a step b) of executing the external action in such a way as to make the folding regions pass from one or the other of the folded or unfolded states to the other of the folded or unfolded states such that the spacing between the relative positions of the structures with respect to each other varies before the execution of step c), the support layer further comprises an intermediate layer adapted, under the action of the external excitation, to vary its stress state, and thereby generate the passage from one or the other of the folded and unfolded states to the other of these two states, the support layer comprises from its first face to its second face, a first layer, the intermediate layer, and a second layer, the first layer and the second layer, having, respectively, first trenches and second trenches at the level of which are inscribed folds at the level of the folding regions when the support layer is in the folded state.
Switching device comprising a switching lock, at least one first switching contact and at least one second switching contact, wherein at least the first switching contact is designed as a movable switching contact, wherein upon contact of the two switching contacts a current path through the switching device is closed, wherein the switching lock comprises a pivotally mounted switch lever, a latch and a latching point, wherein the switching lock is connected at least indirectly to the first switching contact in order to control the movement of the first switching contact, characterised in that the switching device has a cover device, which at least in regions, preferably substantially completely, covers the latching point when the switch contacts are opened, and the latch is out of engagement with the latching point.
A repair patch for a composite material to repair a part to be repaired which is a repair target of the composite material, the patch comprising: a patch main body that is a laminate of a plurality of fiber reinforced preforms in a thickness direction, and has a bonding surface to be bonded to the part to be repaired; and a removal layer that is provided on the bonding surface to be peelable off from the patch main body, wherein the bonding surface includes an inclined surface that is inclined with respect to the thickness direction of the patch main body, the removal layer includes a processed portion that causes the removal layer to have a shape complementary to a shape of the inclined surface of the patch main body, characterised in that the processed portion is formed of slits that are formed at positions to face end portions of the plurality of fiber reinforced preforms in the thickness direction of the patch main body, the end portions being located in the inclined surface. a patch main body that is a laminate of a plurality of fiber reinforced preforms in a thickness direction, and has a bonding surface to be bonded to the part to be repaired; and a removal layer that is provided on the bonding surface to be peelable off from the patch main body, wherein the bonding surface includes an inclined surface that is inclined with respect to the thickness direction of the patch main body, the removal layer includes a processed portion that causes the removal layer to have a shape complementary to a shape of the inclined surface of the patch main body, characterised in that the processed portion is formed of slits that are formed at positions to face end portions of the plurality of fiber reinforced preforms in the thickness direction of the patch main body, the end portions being located in the inclined surface.
A random bit generator including a dual oscillator architecture comprising a fast oscillator with frequency f(fast) and a continuous-time chaotic oscillator, and which relies on generating non-invertible random binary bits from one of the signal of the chaotic oscillator, the random bit generator comprising (a) a chaos-modulated slower clock where; a voltage-controlled oscillator or a current-controlled oscillator is used to implement the modulation of the slower clock frequency with one of the signal, which corresponds to one of the state ( x 1, x 2,... or xn), of the continuous time chaotic oscillator; and center frequency of the VCO or the CCO determines the center frequency of the slower clock f(slow center). (b) a fast clock having a 50% duty cycle which is implemented by dividing a low jitter oscillator inside the hardware, (c) a D type flip-flop (D flip-flop) or a T type flip-flop (T flip-flop) in order to generate binary sequence ( S) by sampling the output of the fast oscillator, at the rising or the falling edges of the chaos-modulated slower clock. where the ratio f(fast) / f (slow center) is 200 or more (a) a chaos-modulated slower clock where; a voltage-controlled oscillator or a current-controlled oscillator is used to implement the modulation of the slower clock frequency with one of the signal, which corresponds to one of the state ( x 1, x 2,... or xn), of the continuous time chaotic oscillator; and center frequency of the VCO or the CCO determines the center frequency of the slower clock f(slow center). (b) a fast clock having a 50% duty cycle which is implemented by dividing a low jitter oscillator inside the hardware, (c) a D type flip-flop (D flip-flop) or a T type flip-flop (T flip-flop) in order to generate binary sequence ( S) by sampling the output of the fast oscillator, at the rising or the falling edges of the chaos-modulated slower clock.