mhurhangee/ep-ind-claims huggingface dataset:
A soft bakery product having a slowly-available-glucose content of from 15 to 40 wt% and a water activity of from 0.4 to 0.9, the product comprising a dough-based, baked portion and optionally a coating and/or a filling, the product comprising: cereals in an amount of at least 35 wt%; at least 5 wt% sugars, having a degree of polymerisation of 1 or 2, by weight of the soft bakery product; and from 0.5 to 12 wt% maltitol by weight of the soft bakery product, wherein the maltitol is present in the dough-based, baked portion, and wherein the maltitol is not present in the optional coating and/or the optional filling; wherein the cereals are provided by flour and/or inclusions, wherein the inclusions are selected from the group consisting of flakes, groats, grits, cuts and mixtures of two or more thereof; wherein the soft bakery product has a weight ratio of sugars to maltitol of from 2:1 to 20:1; and wherein the SAG content is measured according to the Englyst method. cereals in an amount of at least 35 wt%; at least 5 wt% sugars, having a degree of polymerisation of 1 or 2, by weight of the soft bakery product; and from 0.5 to 12 wt% maltitol by weight of the soft bakery product, wherein the maltitol is present in the dough-based, baked portion, and wherein the maltitol is not present in the optional coating and/or the optional filling; wherein the cereals are provided by flour and/or inclusions, wherein the inclusions are selected from the group consisting of flakes, groats, grits, cuts and mixtures of two or more thereof; wherein the soft bakery product has a weight ratio of sugars to maltitol of from 2:1 to 20:1; and wherein the SAG content is measured according to the Englyst method.
Gearbox and sensor assembly in the gearbox arranged to be used for positioning, where the sensor assembly comprises a relative to a gearbox housing fixed sensor, wherein a shaft fixed to an output shaft of the gearbox (14,16) and connected to the sensor is used when measuring the angle in the gearbox between the gearbox housing and the output shaft of the gearbox (14, 16), characterised in that the sensor assembly comprises a control system arranged to receive information about the actual angle in the gearbox (14, 16) and cut down the power to the motor of the gearbox (14, 16) when the gearbox (14, 16) approaches a pre-programmed end position.
A method of manufacturing a multistage axial-centrifugal compressor for a gas turbine engine, the multistage axial-centrifugal compressor including a series of axial compressor stages (456a - 456c) each having a rotor (450a - 450c) mounted to a common shaft positioned upstream from a centrifugal compressor stage mounted to the common shaft, the method comprising: receiving, by a processor, an operating speed of the multi-stage axial centrifugal compressor; determining, by the processor, an operational rotor tip speed for each of the axial compressor stages (456a-456c) based on the operating speed of the multi-stage axial centrifugal compressor; comparing, by the processor, the operational rotor tip speed for each of the axial compressor stages (456a-456c) to a threshold range value; determining, by the processor, to machine an airfoil of the rotor for at least one of the axial compressor stages (456a-456c) by an arbitrary manufacturing approach based on the operational rotor tip speed for the at least one of the axial compressor stages as greater than the threshold range value; determining, by the processor, to machine an airfoil of the rotor for at least one of the axial compressor stages (456a-456c) by a flank manufacturing approach based on the operational rotor tip speed for the at least one of the axial compressor stages as less than the threshold range value; and generating manufacturing system data for a manufacturing system based on the determining to machine the airfoil of the rotor by the arbitrary manufacturing approach and the flank manufacturing approach for the axial compressor stages. receiving, by a processor, an operating speed of the multi-stage axial centrifugal compressor; determining, by the processor, an operational rotor tip speed for each of the axial compressor stages (456a-456c) based on the operating speed of the multi-stage axial centrifugal compressor; comparing, by the processor, the operational rotor tip speed for each of the axial compressor stages (456a-456c) to a threshold range value; determining, by the processor, to machine an airfoil of the rotor for at least one of the axial compressor stages (456a-456c) by an arbitrary manufacturing approach based on the operational rotor tip speed for the at least one of the axial compressor stages as greater than the threshold range value; determining, by the processor, to machine an airfoil of the rotor for at least one of the axial compressor stages (456a-456c) by a flank manufacturing approach based on the operational rotor tip speed for the at least one of the axial compressor stages as less than the threshold range value; and generating manufacturing system data for a manufacturing system based on the determining to machine the airfoil of the rotor by the arbitrary manufacturing approach and the flank manufacturing approach for the axial compressor stages.
A screening method for agonists and antagonists of p75 NTR signaling comprising the steps of: • Contacting primary or in vitro generated human or animal plasmacytoid dendritic cells, or PDC cell lines that expresses the nerve growth factor receptor p75 NTR with a test substance; • Incubating said contacted human or animal PDCs or PDC cell lines for a period of time, which is sufficient for effecting p75 NTR signaling; • Determining the effect of the test substance on the primary or in vitro generated human or animal PDCs or PDC cell lines; • Comparing the effect of the test substance in the contacted primary or in vitro generated human or animal PDCs or PDC cell lines with control cells or cell lines; and • Selecting a test substance that agonizes or antagonizes p75 NTR signaling in primary or in vitro generated human or animal PDCs or PDCs cell lines. • Contacting primary or in vitro generated human or animal plasmacytoid dendritic cells, or PDC cell lines that expresses the nerve growth factor receptor p75 NTR with a test substance; • Incubating said contacted human or animal PDCs or PDC cell lines for a period of time, which is sufficient for effecting p75 NTR signaling; • Determining the effect of the test substance on the primary or in vitro generated human or animal PDCs or PDC cell lines; • Comparing the effect of the test substance in the contacted primary or in vitro generated human or animal PDCs or PDC cell lines with control cells or cell lines; and • Selecting a test substance that agonizes or antagonizes p75 NTR signaling in primary or in vitro generated human or animal PDCs or PDCs cell lines.
A sewing machine comprising a body part and a drive apparatus comprising: a rotatable sleeve that in use is secured to an extension shaft of the sewing machine and a first fan mounted on said sleeve; a rotor carried by said rotatable sleeve; a housing comprising a main body portion defining a chamber and including an axially extending passage disposed at a closed end thereof through which the sleeve extends and a plurality of first air inlets; a guide plate that in use is disposed between an open end of the housing and a body part of the sewing machine to which the housing is secured, the guide plate including an opening in flow communication with said chamber and the first fan being at least partially disposed in the opening between the guide plate and sleeve; and a wheel fastened on the sleeve and including a plurality of second air inlets and a second fan facing the closed end of the main body portion, wherein the arrangement is such that, in use, a first airflow drawn through the first air inlets by said first fan passes through the opening of the guide plate and said opening is configured to direct the first airflow outwardly with respect to said chamber onto said body part and a second airflow is drawn through the second air inlets by said second fan to cool the housing and the interior of said housing, wherein said second airflow is separate from said first airflow, and wherein the body part includes a cavity and an outlet at a bottom of the cavity via which said air directed onto said body part is exhausted from said cavity. a rotatable sleeve that in use is secured to an extension shaft of the sewing machine and a first fan mounted on said sleeve; a rotor carried by said rotatable sleeve; a housing comprising a main body portion defining a chamber and including an axially extending passage disposed at a closed end thereof through which the sleeve extends and a plurality of first air inlets; a guide plate that in use is disposed between an open end of the housing and a body part of the sewing machine to which the housing is secured, the guide plate including an opening in flow communication with said chamber and the first fan being at least partially disposed in the opening between the guide plate and sleeve; and a wheel fastened on the sleeve and including a plurality of second air inlets and a second fan facing the closed end of the main body portion, wherein the arrangement is such that, in use, a first airflow drawn through the first air inlets by said first fan passes through the opening of the guide plate and said opening is configured to direct the first airflow outwardly with respect to said chamber onto said body part and a second airflow is drawn through the second air inlets by said second fan to cool the housing and the interior of said housing, wherein said second airflow is separate from said first airflow, and
An apparatus capable of manufacturing a wide adhesive sheeted roll with a width of greater than about 1.5 m for contact cleaning, said apparatus comprising: a rotatably mounted tension roller; a rotatably mounted path roller located below the tension roller; the rotatably mounted tension roller having ends which are height adjustable wherein the ends of the tension roller are connected to height adjustable means on both ends of the tension roller which are able to constantly change the height of the tension roller during use; the height adjustable means comprise adjustable dead-stop mechanisms which are capable of limiting the amount of vertical travel for either end of the tension roller; and wherein there is a gap between the rotatably mounted tension roller and the rotatably mounted path roller capable of receiving a web with a width of greater than about 1.5 m and forming a wide adhesive sheeted roll. a rotatably mounted tension roller; a rotatably mounted path roller located below the tension roller; the rotatably mounted tension roller having ends which are height adjustable wherein the ends of the tension roller are connected to height adjustable means on both ends of the tension roller which are able to constantly change the height of the tension roller during use; the height adjustable means comprise adjustable dead-stop mechanisms which are capable of limiting the amount of vertical travel for either end of the tension roller; and wherein there is a gap between the rotatably mounted tension roller and the rotatably mounted path roller capable of receiving a web with a width of greater than about 1.5 m and forming a wide adhesive sheeted roll.
Multistage turbocompressor, having at least one rotor and at least one casing, which compresses a process gas from an inlet pressure at the inlet of a first stage to a discharge pressure at the exit of a last stage, wherein at least one gas seal (DGS1 - DGS6) is associated in each case with at least the first stage and the last stage and seals the penetration of a rotor shaft through a wall of the casing, or casings, against a respective stage inlet pressure or stage discharge pressure, wherein the gas seals (DGS1 - DGS6) are connected to at least one sealing gas line (SGL1 - SGL6), by means of which they are supplied with sealing gas, wherein at least one pressure chamber on the pressure side of the gas seal (DGS1 - DGS6) of the last stage which provides sealing against pressure discharge to the environment is connected to at least one relief line which opens into a pressure sink, characterized in that a plurality of sealing gas lines (SGL1 - SGL6) are connected to a sealing gas feed line in which at least one control valve (CV11, CV12) is arranged between junctions of different sealing gas lines (SGL1 - SGL6).
Method for managing, in a device called second device, the transmission, via a first communication channel, of a first message to a first device, comprising the following steps in the second device: a. reception (ET3, ET4) of a message, called second message, for which the second device is the recipient, this message being received from a communication channel, called second communication channel; b. transmission of a message, called first message, based on the received second message, to the first device, via a communication channel, called first channel, the first message also including at least one possible response to the first message; c. reception (ET8, ET9, ET10) of a response from the first device, the response having been selected in the transmitted message. a. reception (ET3, ET4) of a message, called second message, for which the second device is the recipient, this message being received from a communication channel, called second communication channel; b. transmission of a message, called first message, based on the received second message, to the first device, via a communication channel, called first channel, the first message also including at least one possible response to the first message; c. reception (ET8, ET9, ET10) of a response from the first device, the response having been selected in the transmitted message.
A method of preparing an injection molded article, comprising: injection molding a composition comprising a polycarbonate resin formed via an interfacial polymerization process and having a hydroxyl phenolic endgroup concentration of 150 ppm or fewer and 0.05 ppm to 50 ppm of a sulfonic acid, wherein the sulfonic acid comprises at least one of an alkyl benzene sulfonic acid a polystyrene sulfonic acid, a p-toluene sulfonic acid anhydride, and wherein the injection molding comprise a maximum molding temperature of at least 330°C at a residence time of at least 10 minutes, or a maximum molding temperature of at least 340°C at a residence time of at least 6 minutes, or a maximum molding temperature of at least 350°C at a residence time of at least 6 minutes, or a maximum molding temperature of at least 360°C at a residence time of at least 3 minutes.
A tissue thickness compensator for use with a fastening instrument, the tissue thickness compensator comprising: a compressible layer configured to be at least partially captured by fasteners; and a plurality of capsules embedded in the compressible layer; wherein each capsule comprises a medicament; and characterised in that the compressible layer comprises channels extending from the capsules, and wherein the channels are configured to convey the medicament. a compressible layer configured to be at least partially captured by fasteners; and a plurality of capsules embedded in the compressible layer; wherein each capsule comprises a medicament; and characterised in that the compressible layer comprises channels extending from the capsules, and wherein the channels are configured to convey the medicament.
Device for mounting cams on a camshaft tube of a cam shaft, having at least one first gripper and one second gripper for gripping and holding the cams during the mounting process, wherein the at least two grippers (5, 6) can be equipped from the same direction with cams and are movable in the same direction into an alignment with the camshaft tube, wherein the second gripper permits a gripping of a cam twisted by 90° to the first gripper, characterised in - that the second gripper has a U-shaped receptacle and a holder, which is axially and radially movable relative thereto and is also U-shaped, - that two contact bodies, on which the cam to be held rests, are arranged on the U-shaped receptacle, - that two further contact bodies are arranged on the U-shaped holder, - the cam is clamped during the mounting on the camshaft tube between the four contact bodies of the second gripper. - that the second gripper has a U-shaped receptacle and a holder, which is axially and radially movable relative thereto and is also U-shaped, - that two contact bodies, on which the cam to be held rests, are arranged on the U-shaped receptacle, - that two further contact bodies are arranged on the U-shaped holder, - the cam is clamped during the mounting on the camshaft tube between the four contact bodies of the second gripper.
A device including a Hall sensor providing a Hall sensing signal (V H) and a circuit, the circuit including: - an input node configured for receiving a bias voltage signal (V bias) for the Hall sensor providing said Hall sensing signal (V H), - a bias node coupled to the Hall sensor to provide a compensated bias voltage signal (V out) to the Hall sensor, characterised in that the circuit further includes: - a compensation network (10, 12, 14, 16a, 16b, 18) between the input node and the bias node, wherein the compensation network has a voltage gain inversely proportional to Hall mobility of the Hall sensor, μ n ', wherein the Hall sensing signal (V H) is temperature-compensated. - an input node configured for receiving a bias voltage signal (V bias) for the Hall sensor providing said Hall sensing signal (V H), - a bias node coupled to the Hall sensor to provide a compensated bias voltage signal (V out) to the Hall sensor, - a compensation network (10, 12, 14, 16a, 16b, 18) between the input node and the bias node, wherein the compensation network has a voltage gain inversely proportional to Hall mobility of the Hall sensor, μ n ', wherein the Hall sensing signal (V H) is temperature-compensated.
A sensor for sensing an organic chemical analyte, comprising: a sensing element that comprises a first electrode and a second electrode and a microporous, hydrophobic, analyte-responsive dielectric material disposed at least in proximity to the first and second electrodes, wherein the microporous, hydrophobic analyte-responsive dielectric material comprises an amorphous random covalent network comprising at least about 30 % carbon, and having a mean pore size of less than about 10 nm and a porosity of at least about 20 %; and, an operating circuit in electrical communication with the first and second electrodes, wherein the operating circuit is capable of applying a voltage to the first and second electrodes and is capable of detecting a change in an electrical property of the sensing element. a sensing element that comprises a first electrode and a second electrode and a microporous, hydrophobic, analyte-responsive dielectric material disposed at least in proximity to the first and second electrodes, wherein the microporous, hydrophobic analyte-responsive dielectric material comprises an amorphous random covalent network comprising at least about 30 % carbon, and having a mean pore size of less than about 10 nm and a porosity of at least about 20 %; and, an operating circuit in electrical communication with the first and second electrodes, wherein the operating circuit is capable of applying a voltage to the first and second electrodes and is capable of detecting a change in an electrical property of the sensing element.
Method for estimating a final state of energy SOEf of an electrochemical accumulator from a set of quadruplets of values relating to operating points of the electrochemical accumulator including power, temperature, state of energy and remaining energy (En), said method including: - a phase of measuring a temperature T m, and a power P m, representative of the current operation of the accumulator, - a phase of determining an initial state of energy SOE, - a phase of evaluating an initial remaining energy Eni based on the initial state of energy SOE and the measurements of power P m and temperature T m, and implementing a step of interpolation, in particular linear interpolation, and using at least some quadruplets from the set of quadruplets, - a phase of determining a final remaining energy Enf, a function of the initial remaining energy Eni and an amount of energy drawn from or supplied to the accumulator, - a phase of determining the final state of energy SOEf as a function of the measured power P m, the measured temperature T m and the final remaining energy Enf, implementing a step of interpolation, in particular linear interpolation. - a phase of measuring a temperature T m, and a power P m, representative of the current operation of the accumulator, - a phase of determining an initial state of energy SOE, - a phase of evaluating an initial remaining energy Eni based on the initial state of energy SOE and the measurements of power P m and temperature T m, and implementing a step of interpolation, in particular linear interpolation, and using at least some quadruplets from the set of quadruplets, - a phase of determining a final remaining energy Enf, a function of the initial remaining energy Eni and an amount of energy drawn from or supplied to the accumulator, - a phase of determining the final state of energy SOEf as a function of the measured power P m, the measured temperature T m and the final remaining energy Enf, implementing a step of interpolation, in particular linear interpolation.
An apparatus arranged to be inserted between a side of a seat and a central console of a vehicle, in use, said apparatus including an inflatable bladder; further including inflation means provided associated with the bladder to permit selectable inflation and deflation of the apparatus by a user; and characterized in that said inflation means comprise a bulb pump member which includes a bulb body, air inlet means, air outlet means, and a valve member to permit deflation of the inflatable bladder, and wherein the apparatus further includes a sleeve member, and said inflatable bladder is provided to be located within, or at least partially within, said sleeve member.