mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a cache module comprising cache lines which are the smallest memory blocks of the cache module, wherein the method comprises a step of receiving an incoming message for storing, the step of receiving comprising: determining size of the message to in turn determine number of cache lines required for the message; finding available cache lines required for the determined number of cache lines, wherein the step of finding comprises: i. utilizing an algorithm using a de Bruijn sequence to find an available first cache line by determining the location of a least significant bit of value 1 of an integer that is a binary representation of which cache lines are free or used, wherein the least significant bit of value 1 identifies the location of the available first cache line; ii. storing the message or, if more than one cache line is required, part of the message in the first cache line in the cache module; iii. storing the location of the first cache line in a lookup table indexing details of the stored message; iv. repeating steps i to iii if more than one cache line is required for the message. determining size of the message to in turn determine number of cache lines required for the message; finding available cache lines required for the determined number of cache lines, wherein the step of finding comprises: i. utilizing an algorithm using a de Bruijn sequence to find an available first cache line by determining the location of a least significant bit of value 1 of an integer that is a binary representation of which cache lines are free or used, wherein the least significant bit of value 1 identifies the location of the available first cache line; ii. storing the message or, if more than one cache line is required, part of the message in the first cache line in the cache module; iii. storing the location of the first cache line in a lookup table indexing details of the stored message; iv. repeating steps i to iii if more than one cache line is required for the message. i. utilizing an algorithm using a de Bruijn sequence to find an available first cache line by determining the location of a least significant bit of value 1 of an integer that is a binary representation of which cache lines are free or used, wherein the least significant bit of value 1 identifies the location of the available first cache line; ii. storing the message or, if more than one cache line is required, part of the message in the first cache line in the cache module; iii. storing the location of the first cache line in a lookup table indexing details of the stored message; iv. repeating steps i to iii if more than one cache line is required for the message.
A process fluid pressure measurement probe comprising: a pressure sensor (40, 112) formed of a single crystal material and mounted through a first metallic process fluid barrier (42, 130) and disposed for direct contact with a process fluid, the pressure sensor (40, 112) having an electrical characteristic that varies with process fluid pressure; a feedthrough (48, 122) being mounted through a second metallic process fluid barrier (46, 116) and being spaced from, but electrically coupled to, the pressure sensor (40, 112); and wherein the pressure sensor (40, 112) and the feedthrough (48, 122) are mounted such that the second metallic process fluid barrier (46, 116) is isolated from process fluid by the first metallic process fluid barrier (42, 130), the probe being characterized in that the feedthrough (48, 122) is formed of a single crystal material and has a plurality of conductors extending from a first end to a second end. a pressure sensor (40, 112) formed of a single crystal material and mounted through a first metallic process fluid barrier (42, 130) and disposed for direct contact with a process fluid, the pressure sensor (40, 112) having an electrical characteristic that varies with process fluid pressure; a feedthrough (48, 122) being mounted through a second metallic process fluid barrier (46, 116) and being spaced from, but electrically coupled to, the pressure sensor (40, 112); and wherein the pressure sensor (40, 112) and the feedthrough (48, 122) are mounted such that the second metallic process fluid barrier (46, 116) is isolated from process fluid by the first metallic process fluid barrier (42, 130), the probe being characterized in that the feedthrough (48, 122) is formed of a single crystal material and has a plurality of conductors extending from a first end to a second end. the probe being characterized in that the feedthrough (48, 122) is formed of a single crystal material and has a plurality of conductors extending from a first end to a second end.
A healing substance that is sprayable on bed-rest wounds to create a stable, healing crust-bandage, the substance having a composition of herbal and natural sources and including the following ingredients i) propolis alcoholic extract, ii) extract from dry parts of Red Sweet Pepper, i.e. Capsicum annuum L, including capsaicin of a heating temperature from 0 to 100 degrees Scoville and humidity up to 10%, iii) zeolite powder 100% clean as a controller of humidity, iv) magnesium stearate, v) menthol herbal powder, whereby the substance is in powder form.
A delivery and discharge outlet assembly for an air decontamination device, the assembly comprising an ozone generator provided within or attached to a delivery conduit, the delivery conduit having at one end thereof at least one discharge outlet between at least two at least partially converging plates (72, 74) wherein ozone is delivered from the conduit through the outlet, characterised by the assembly further comprising at least one water discharge nozzle attached to the upper plate of the discharge outlet, remote from the lower plate.
An anionic polymer which is at least a tetrapolymer comprising at least four different repeat units distributed along the length of the polymer chain, said at least four repeat units including at least one each of type B, type C, and type G repeat units, said type B repeat units selected from the group consisting of repeat units derived from substituted and unsubstituted monomers of maleic acid and/or anhydride, fumaric acid and/or anhydride, mesaconic acid and/or anhydride, mixtures of the foregoing, and any isomers, esters, acid chlorides, and partial or complete salts of any of the foregoing, wherein type B repeat units may be substituted with one or more C1-C6 straight or branched chain alkyl groups substantially free of ring structures and halo atoms, and wherein the salts have salt-forming cations selected from the group consisting of metals, amines, and mixtures thereof, said type C repeat units selected from the group consisting of repeat units derived from substituted or unsubstituted monomers of itaconic acid, itaconic anhydride, and any isomers, esters, and the partial or complete salts of any of the foregoing, and mixtures of any of the foregoing, wherein the type C repeat units may be substituted with one or more C1-C6 straight or branched chain alkyl groups substantially free of ring structures and halo atoms, and wherein the salts have salt-forming cations selected from the group consisting of metals, amines, and mixtures thereof, said type G repeat units selected from the group consisting of repeat units derived from substituted or unsubstituted sulfonated monomers possessing at least one carbon-carbon double bond and at least one sulfonate group and which are substantially free of aromatic rings and amide groups, and any isomers, and the partial or complete salts of any of the foregoing, and mixtures of any of the foregoing, wherein type G repeat units may be substituted with one or more C1-C6 straight or branched chain alkyl groups substantially free of ring structures and halo atoms, and wherein the salts of the type G repeat units have salt-forming cations selected from the group consisting of metals, amines, and mixtures thereof, at least about 90 mole percent of the repeat units therein are selected from the group consisting of type B, C, and G repeat units, and mixtures thereof, said repeat units being randomly located along the polymer, said polymer containing no more than 10 mole percent of any of (i) non-carboxylate olefin repeat units, (ii) ether repeat units, and (iii) non-sulfonated monocarboxylic repeat units.
Method for the preparation of a hyperbranched polyester mixture, the method comprising the steps (a) reacting a hydroxyl group containing carboxylic acid with at least one carboxylic acid group and at least two hydroxyl groups with a diol having a molecular weight of more than 100 g/mol, in the presence of at least one further reactant, wherein the at least one further reactant is a polyol having at least three hydroxyl groups under a reaction condition allowing ester and ether formation; and (b) reacting the mixture resulting from step (a) with a hydrophobic carboxylic acid of formula Rh-COOH, wherein Rh is a hydrocarbon radical with at least 10 carbon atoms, or in the form of a salt or activated derivatives of the carboxylic acid group that can be used for ester formation, wherein at least 30 % of terminal OH groups are converted into hydrophobically modified groups by reacting with the hydrophobic carboxylic acid, resulting in the hyperbranched polyester mixture. (a) reacting a hydroxyl group containing carboxylic acid with at least one carboxylic acid group and at least two hydroxyl groups with a diol having a molecular weight of more than 100 g/mol, in the presence of at least one further reactant, wherein the at least one further reactant is a polyol having at least three hydroxyl groups under a reaction condition allowing ester and ether formation; and (b) reacting the mixture resulting from step (a) with a hydrophobic carboxylic acid of formula Rh-COOH, wherein Rh is a hydrocarbon radical with at least 10 carbon atoms, or in the form of a salt or activated derivatives of the carboxylic acid group that can be used for ester formation, wherein at least 30 % of terminal OH groups are converted into hydrophobically modified groups by reacting with the hydrophobic carboxylic acid, resulting in the hyperbranched polyester mixture.
Sensor element for a gas sensor for measuring a physical property of a measuring gas, in particular the concentration of a gas component or the temperature, having an electric heating device which is arranged in a ceramic sensor body and has connecting conductor tracks (15, 16) and a resistance heater which is connected to connecting points (17, 18) of the connecting conductor tracks (15, 16) and has conductor tracks which are connected in parallel and extend over a heating region which has a planar extent in the sensor body, wherein in order to form the conductor tracks the resistance heater has two conductor track paths (23, 24), each of which is connected to a connecting point (17, 18) of the resistance heater, and a plurality of conductor track branches which are connected to the two conductor track paths (23, 24), characterized in that the conductor track branches are embodied, together with their feed line sections, in the two conductor track paths (23, 24) in such a way that, when viewed from the connecting points (17, 18), they have an equally large ohmic resistance in the tolerance range which is defined by ±2%, and in that the cross section of the conductor track branches grows with increasing distance of the conductor track branches from the connecting points.
A power converter comprising: a power conversion circuitry, connectable to a power source, including: a converter coil, a switch connected to the converter coil to control current flowing through the converter coil from the power source, the power conversion circuitry including a converter output connectable to a converter load; and parallel snubber circuitry having resonant circuitry connected in parallel with the converter coil, the resonant circuitry including a parallel snubber circuitry coil and a capacitor connected in series, the parallel snubber circuitry including a parallel snubber output connectable to a parallel snubber circuitry load; and characterized by: a series snubber circuitry associated with the converter coil including a flyback transformer in series with the converter coil with respect to the power source, a series snubber circuitry input coil disposed in series with the converter coil and the capacitor with respect to the power source, and a series snubber diode disposed between the capacitor and the series snubber circuitry input coil, the capacitor and the series snubber circuitry input coil forming a series resonant snubber, the series snubber circuitry including a series snubber output connectable to a series snubber circuitry load. a converter coil, a switch connected to the converter coil to control current flowing through the converter coil from the power source, the power conversion circuitry including a converter output connectable to a converter load; and parallel snubber circuitry having resonant circuitry connected in parallel with the converter coil, the resonant circuitry including a parallel snubber circuitry coil and a capacitor connected in series, the parallel snubber circuitry including a parallel snubber output connectable to a parallel snubber circuitry load; and characterized by: a series snubber circuitry associated with the converter coil including a flyback transformer in series with the converter coil with respect to the power source, a series snubber circuitry input coil disposed in series with the converter coil and the capacitor with respect to the power source, and a series snubber diode disposed between the capacitor and the series snubber circuitry input coil, the capacitor and the series snubber circuitry input coil forming a series resonant snubber, the series snubber circuitry including a series snubber output connectable to a series snubber circuitry load.
A process for the preparation of a compound of formula or salts thereof, wherein R is a hydrogen atom or an amine protecting or activating group, comprising: (a) protecting the hydroxy of the compound of formula to obtain the compound of formula (b) carrying out a Friedel Crafts reaction on the compound of formula to obtain the compound of formula (c) hydrogenating the compound of formula to obtain the compound of formula (d) carrying out a Friedel Crafts reaction on the compound of formula to obtain the compound of formula (e) hydrogenating the compound of formula to obtain the compound of formula (f) deprotecting the hydroxy of the compound of formula to obtain the compound of formula (VIII) (g) introducing the group of formula X to obtain the compound of formula; (h) reacting the compound of formula with a compound of formula R-NH 2 to obtain the compound of formula and optionally converting it into a salt thereof, wherein R is as defined above, Pr is a protecting group of the oxygen which is not cleavable by hydrogenation and X is a leaving group for a nucleophilic substitution selected from a methanesulfonate, p-toluenesulfonate, benzenesulfonate, trifluoromethanesulfonate group and a halogen atom. (a) protecting the hydroxy of the compound of formula to obtain the compound of formula (b) carrying out a Friedel Crafts reaction on the compound of formula to obtain the compound of formula (c) hydrogenating the compound of formula to obtain the compound of formula (d) carrying out a Friedel Crafts reaction on the compound of formula to obtain the compound of formula (e) hydrogenating the compound of formula to obtain the compound of formula (f) deprotecting the hydroxy of the compound of formula to obtain the compound of formula (VIII) (g) introducing the group of formula X to obtain the compound of formula; (h) reacting the compound of formula with a compound of formula R-NH 2 to obtain the compound of formula and optionally converting it into a salt thereof,
An assembly or kit that can be fitted to an ordinary wheelchair driven manually by circular push rings on the wheels, including one or two devices including two parts mobile relative to one another, namely a guide provided with quick fixing means, in particular by clamping, in horizontal position, a wheel slide guided by said guide and having a transverse axle or sleeve on and in which a rear wheel can be mounted so that the rotation of said rear wheel drives the movement of the slide along the guide between a normal rolling advanced position and a retracted position in which the rear wheel no longer protrudes on the side of the seat of the chair, means for manually actuating immobilization of the slide in said advanced, respectively retracted, position, the length of said elongate slide being such that, in the rear or retracted position, it can exit the rear end of the guide with an overhang, the slide remaining retained in the guide by its anterior part, said advanced and retracted position immobilization means including manually unlockable clipping means (10, 23, 25) and unclipped position retaining means enabling the user to free their hands to drive said wheel of the chair between said advanced and retracted positions, and automatic unlocking means enabling return of the clipping means into the clipping position upon movement of the wheel slide, characterized in that said clipping means (10, 23, 25) include an elongate lever (20, 28) articulated in pivoting manner on one of said parts (1, 15) and actuatable by a hand lever or handle (21, 31), said lever (20, 28) and the part (1, 15) that does not carry said lever including respective complementary clipping elements (24, 26), namely two elements (24, 26) spaced by a distance equal to the distance between said advanced and retracted positions, and an element, adapted to be clipped together when said slide reaches the advanced, respectively retracted, position, said lever (20, 28) being able to pivot between an unclipped position and a clipped position.
A toy construction system comprising toy construction elements, the toy construction elements comprising coupling means for releasably interconnecting the toy construction elements, the toy construction system comprising one or more marker construction elements (11, 311) comprising such coupling means and each having a visual appearance recognisable by an image processing means, and a data processing system comprising image capturing means, image processing means, and display means, wherein the data processing system is adapted to - capture an image of a toy construction model constructed from the toy construction elements; - process the captured image to detect at least a presence of at least one of the marker construction elements within the captured image; - responsive to the detected marker construction element generate a computer-generated image; characterised in that the data processing system is further adapted to - display on said display means a composite image comprising the captured image having superimposed the generated computer-generated image. - capture an image of a toy construction model constructed from the toy construction elements; - process the captured image to detect at least a presence of at least one of the marker construction elements within the captured image; - responsive to the detected marker construction element generate a computer-generated image; - display on said display means a composite image comprising the captured image having superimposed the generated computer-generated image.
Stacking device for lattice mast crane elements, in particular for jib portions, comprising: a first support body, a profiled rail, and a second support body, wherein the first support body comprises, on the bottom surface thereof, a concavely-running continuous depression to accommodate a longitudinal beam of a lattice mast crane element and, on the top surface thereof, opposite the bottom surface, a coupling portion for displaceable attachment to the profiled rail, and the second support body comprises, on the top surface thereof, a concavely-running continuous depression to accommodate a longitudinal beam of a lattice mast crane element and, on the bottom surface thereof, opposite the top surface, a coupling portion for displaceable attachment to the profiled rail. a first support body, a profiled rail, and a second support body, wherein the first support body comprises, on the bottom surface thereof, a concavely-running continuous depression to accommodate a longitudinal beam of a lattice mast crane element and, on the top surface thereof, opposite the bottom surface, a coupling portion for displaceable attachment to the profiled rail, and the second support body comprises, on the top surface thereof, a concavely-running continuous depression to accommodate a longitudinal beam of a lattice mast crane element and, on the bottom surface thereof, opposite the top surface, a coupling portion for displaceable attachment to the profiled rail.
A method, comprising: running a stability benchmark (114, 812) of a computer system to obtain an initial CPU frequency of a central processing unit, CPU, of the computer system, wherein the CPU is unlocked; incrementing a CPU frequency from the initial CPU frequency and running the stability benchmark (114, 812) until the computer system is no longer operating within an operational limit indicated by the stability benchmark (114, 812); saving a current CPU frequency of the computer system before the operational limit is reached; when the computer system is no longer operating within the operational limit, maintaining the CPU frequency at the saved frequency and incrementing a CPU voltage from an initial CPU voltage until a CPU voltage limit is reached; characterized in that the method further comprises: when the CPU voltage is incremented, running a stress benchmark, resulting in a CPU benchmark score, wherein the stress benchmark is more rigorous than the stability benchmark; and updating a configuration of the computer system based on the CPU benchmark score and the saved CPU frequency. running a stability benchmark (114, 812) of a computer system to obtain an initial CPU frequency of a central processing unit, CPU, of the computer system, wherein the CPU is unlocked; incrementing a CPU frequency from the initial CPU frequency and running the stability benchmark (114, 812) until the computer system is no longer operating within an operational limit indicated by the stability benchmark (114, 812); saving a current CPU frequency of the computer system before the operational limit is reached; when the computer system is no longer operating within the operational limit, maintaining the CPU frequency at the saved frequency and incrementing a CPU voltage from an initial CPU voltage until a CPU voltage limit is reached; when the CPU voltage is incremented, running a stress benchmark, resulting in a CPU benchmark score, wherein the stress benchmark is more rigorous than the stability benchmark; and updating a configuration of the computer system based on the CPU benchmark score and the saved CPU frequency.