mhurhangee/patent-ind-claim-en huggingface dataset:
A system for sensor signals dependent dialog generation during a medical imaging process, the system comprising - a sensor module , configured to measure condition data of a patient; - a processor module , configured to analyze the condition data of the patient to determine biometric and physical condition data of the patient; - a dialog data generation module , configured to generate questionnaires data for obtaining real-time feedback from the patient during the medical imaging process, wherein the questionnaires data is based on a parameter of the medical imaging process and on the determined biometric and physical condition data of the patient. - a sensor module , configured to measure condition data of a patient; - a processor module , configured to analyze the condition data of the patient to determine biometric and physical condition data of the patient; - a dialog data generation module , configured to generate questionnaires data for obtaining real-time feedback from the patient during the medical imaging process, wherein the questionnaires data is based on a parameter of the medical imaging process and on the determined biometric and physical condition data of the patient.
A method for utilizing proxy designation in a call system, comprising: receiving a call from a first user over a first connection with a first endpoint of the first user; receiving a proxy designation from the first user, the proxy designation comprising a proxy user designated to handle the call for the first user; establishing a second connection with the proxy user; and detecting the presence of the proxy user over the second connection, wherein detecting the presence of the proxy user comprises authenticating the proxy user using a password of the proxy user and wherein the proxy designation comprises a plurality of proxy users to handle the call for the first user. receiving a call from a first user over a first connection with a first endpoint of the first user; receiving a proxy designation from the first user, the proxy designation comprising a proxy user designated to handle the call for the first user; establishing a second connection with the proxy user; and detecting the presence of the proxy user over the second connection, wherein detecting the presence of the proxy user comprises authenticating the proxy user using a password of the proxy user and wherein the proxy designation comprises a plurality of proxy users to handle the call for the first user.
A fitting for releasably connecting two furniture parts , comprising a first fitting part , which can be fastened on a first furniture part , and a second fitting part , which can be fastened on a second furniture part , wherein the second fitting part has at least one rigid latching cam which, when the fitting parts are plugged into each other, is engaged behind by a latching nose , said latching nose being provided on a deflectable latching tongue of the first fitting part , wherein the latching tongue can be moved from its locking position, in which it engages behind the latching cam , into a release position, in which it no longer engages behind the latching cam , and, in said release position, can be fixed to the second fitting part , and this fixing can be disengaged by separating the fitting parts , and wherein the latching tongue , for its part, has at least one latching spring , characterized in that the first fitting part is designed in the form of a drill-in cup , in particular with spreadable cup wings , and that the second fitting part is designed in the form of a carrier part with a fastening leg , which has a pin formed on it or has a hole for a screw or a pin, and that the free spring end of the latching spring , when the fitting parts are being plugged into each other, can be deflected transversely to the deflecting plane of the latching tongue by a counter bearing of the second fitting part , wherein the free spring end remains deflected by the counter bearing from the locking position until before the release position of the latching tongue is reached, and, in the release position of the latching tongue , snaps back behind the counter bearing and is thus fixed on the second fitting part .
Bearing with a first ring , a second ring , and rolling bodies which are arranged between the rings , the first ring being a split ring with a first ring part and a second ring part , an annular seal being arranged in an abutment region between the first ring part and the second ring part , characterized in that the first ring part and the second ring part have an axially extending cut-out in the abutment region , the cut-out being configured by way of an axially extending cut-out part in the first ring part and an axially extending cut-out part in the second ring part , and in that the annular seal is of cylinder shell-shaped configuration and is arranged so as to extend axially into the cut-out part of the first ring part and into the cut-out part of the second ring part , the cut-out being configured as a pocket in the first and second ring part , in which pocket the cylinder shell-shaped seal is received.
A non therapeutic and non surgical computer-implemented method for controlling fluid flow rates during a biological fluid procedure, comprising: providing a membrane separator configured to separate a biological fluid into filtrate and retentate, wherein concentration of retentate exiting the membrane separator is controllable by altering a flow rate of the retentate exiting the membrane separator ; detecting a change of attenuated retentate particles within the filtrate; comparing the change of attenuated retentate particles within the filtrate with a threshold level; and providing a first response action comprising altering the concentration of retentate exiting the membrane separator if the change of attenuated retentate particles within the filtrate exceeds the threshold level; further comprising: detecting a change in transmembrane pressure within the membrane separator ; comparing the change in transmembrane pressure with a second threshold level; and providing a second response action comprising increasing the flow rate of the retentate if the change in transmembrane pressure exceeds the second threshold level, wherein the second response action is provided only when the first response action is not triggered, or withholding the first response action when the second response action is ongoing. providing a membrane separator configured to separate a biological fluid into filtrate and retentate, wherein concentration of retentate exiting the membrane separator is controllable by altering a flow rate of the retentate exiting the membrane separator ; detecting a change of attenuated retentate particles within the filtrate; comparing the change of attenuated retentate particles within the filtrate with a threshold level; and providing a first response action comprising altering the concentration of retentate exiting the membrane separator if the change of attenuated retentate particles within the filtrate exceeds the threshold level; further comprising: detecting a change in transmembrane pressure within the membrane separator ; comparing the change in transmembrane pressure with a second threshold level; and providing a second response action comprising increasing the flow rate of the retentate if the change in transmembrane pressure exceeds the second threshold level, wherein the second response action is provided only when the first response action is not triggered, or withholding the first response action when the second response action is ongoing. detecting a change in transmembrane pressure within the membrane separator ; comparing the change in transmembrane pressure with a second threshold level; and providing a second response action comprising increasing the flow rate of the retentate if the change in transmembrane pressure exceeds the second threshold level, wherein the second response action is provided only when the first response action is not triggered, or withholding the first response action when the second response action is ongoing.
Apparatus with circuitry comprising at least one mechanical switch serving to open and/or close an electric contact and a processor unit serving to perform first query (A1) and a second query (A2) of a contact state (1/0) of the contact , with the processor unit further serving to provide an output signal (S) on the basis of information on a change of the contact state (1/0) of the contact detected by means of the first and second queries (A1, A2), characterized in that the processor unit is configured to perform the second query (A2) after the first query (A1) with a timing so that the second query (A2) precedes an expected bounce (P) of the contact .
A fuel supply system for an internal combustion engine , comprising: a plurality of fuel injection pumps , each fuel injection pump being configured to pressurize fuel and provide the pressurized fuel to an associated fuel injector ; a low-pressure fuel supply line fluidly connected to the plurality of fuel injection pumps and configured to provide fuel from a fuel supply tank to the plurality of fuel injection pumps ; a low-pressure fuel return line fluidly connected to the plurality of fuel injection pumps and configured to return remaining fuel from the plurality of fuel injection pumps to the fuel supply tank ; a first fuel cut-off valve disposed in the low-pressure fuel supply line and configured to stop a flow of fuel from the fuel supply tank to the plurality of fuel injection pumps ; and a purge gas supply line fluidly connected to the low-pressure fuel supply line and configured to purge the low-pressure fuel supply line and the low-pressure fuel return line . a plurality of fuel injection pumps , each fuel injection pump being configured to pressurize fuel and provide the pressurized fuel to an associated fuel injector ; a low-pressure fuel supply line fluidly connected to the plurality of fuel injection pumps and configured to provide fuel from a fuel supply tank to the plurality of fuel injection pumps ; a low-pressure fuel return line fluidly connected to the plurality of fuel injection pumps and configured to return remaining fuel from the plurality of fuel injection pumps to the fuel supply tank ; a first fuel cut-off valve disposed in the low-pressure fuel supply line and configured to stop a flow of fuel from the fuel supply tank to the plurality of fuel injection pumps ; and a purge gas supply line fluidly connected to the low-pressure fuel supply line and configured to purge the low-pressure fuel supply line and the low-pressure fuel return line .
Transport device for lifting an object in a reverse vending machine, the transport device comprising a conveyor device for lifting the object from a lower level position to a higher level position in the reverse vending machine, an object supporting device arranged substantially parallel to the conveyor device and arranged in such a way as to allow the object to be held between the conveyor device and the object supporting device during the lifting of the object, wherein the conveyor device includes a first, endless conveyor belt arranged about a first drive roller and a first support roller , wherein the object supporting device includes a clamping member having a surface, the object being clamped between the conveyor device and the surface of the clamping member during the lifting of the object , characterized in that : an actuating device is arranged to move the clamping member in such a way that a spacing between first conveyor belt and the surface of the clamping member will be reduced until an object selected to be lifted comes in contact with the first conveyor belt and the clamping member , is clamped between them and transported upwards. a conveyor device for lifting the object from a lower level position to a higher level position in the reverse vending machine, an object supporting device arranged substantially parallel to the conveyor device and arranged in such a way as to allow the object to be held between the conveyor device and the object supporting device during the lifting of the object, wherein the conveyor device includes a first, endless conveyor belt arranged about a first drive roller and a first support roller , wherein the object supporting device includes a clamping member having a surface, the object being clamped between the conveyor device and the surface of the clamping member during the lifting of the object , characterized in that : an actuating device is arranged to move the clamping member in such a way that a spacing between first conveyor belt and the surface of the clamping member will be reduced until an object selected to be lifted comes in contact with the first conveyor belt and the clamping member , is clamped between them and transported upwards.
A lubricating oil composition comprising a major amount of an oil of lubricating viscosity and from 0.01 to 20% by mass, based on the mass of the composition, of an unsymmetrical bis-succinimide, or a mixture of unsymmetrical bis-succinimides, of the structure (I): wherein one of R 1 and R 2 is a polyisobutylene group having a number average molecular weight of 400 to 5,000, as determined by GPC with reference to linear polystyrene standards, and the other of R 1 and R 2 is a hydrocarbon group made by the metallocene-catalysed polymerisation of an α-olefin feedstock, and wherein x is from 1 to 10 and is the same for all molecules of structure (I) or an average of all molecules of structure (I) in a mixture of molecules of structure (I).
A rock bolt assembly comprising a sensor assembly and a rock bolt , the rock bolt comprising a central rod , a split tube for being fitted around the central rod , a wedge anchor assembly fitted to the central rod , a rock plate with a hole, a nut for attachment to an outer end of the central rod, and a washer for use with the nut , the sensor assembly comprising: a distance sensor , a bracket for attaching the distance sensor to an outer portion of the split tube , an elongate spacing member configured to be fitted around the split tube between the washer and the rock plate to keep the nut and the rock plate spaced apart, wherein the spacing member comprises an opening extending along at least a portion of the length of the spacing member , wherein the opening is sized large enough to allow movement of the bracket along a portion of the length of the spacing member with the distance sensor attached to the outer portion of the split tube by the bracket . a distance sensor , a bracket for attaching the distance sensor to an outer portion of the split tube , an elongate spacing member configured to be fitted around the split tube between the washer and the rock plate to keep the nut and the rock plate spaced apart, wherein the spacing member comprises an opening extending along at least a portion of the length of the spacing member , wherein the opening is sized large enough to allow movement of the bracket along a portion of the length of the spacing member with the distance sensor attached to the outer portion of the split tube by the bracket .
A laser shearography testing system for non-destructively testing a component being a carbon fiber reinforced polymer, the laser shearography testing system comprising: a component heating sub-system coupled to the component , wherein the component heating sub-system excites the component into a loaded state by passing an electric current through the component , wherein a resistivity of the component causes the component to internally and uniformly heat as the electric current passes through the component ; wherein the component heating sub-system comprises one or more heat sensors coupled to the component , the one or more heat sensors being mounted on an outer surface of the component or embedded within the component . a component heating sub-system coupled to the component , wherein the component heating sub-system excites the component into a loaded state by passing an electric current through the component , wherein a resistivity of the component causes the component to internally and uniformly heat as the electric current passes through the component ; wherein the component heating sub-system comprises one or more heat sensors coupled to the component , the one or more heat sensors being mounted on an outer surface of the component or embedded within the component .
A composition comprising at least one cross-linked protein matrix for use in enhancing tissue in-growth and/or tissue re-growth in a patient in need thereof, the protein matrix comprising: i) between 1-250 mg/ml of at least one protein residue derived from at least one amine-bearing protein; ii) at least one saccharide-containing cross-linking residue derived from at least one saccharide-containing cross-linking molecule comprising one or more carboxyl groups; and iii) at least one intermolecular cross-linkage comprising an amide bond between an amine of the at least one amine-bearing protein and a carboxyl group of the at least one saccharide-containing cross-linking molecule, wherein the composition is an injectable composition, preferably for topical injection or during surgery, more preferably for intradermal injection and wherein the at least one protein residue is substantially full length and substantially devoid of intramolecular cross-links. i) between 1-250 mg/ml of at least one protein residue derived from at least one amine-bearing protein; ii) at least one saccharide-containing cross-linking residue derived from at least one saccharide-containing cross-linking molecule comprising one or more carboxyl groups; and iii) at least one intermolecular cross-linkage comprising an amide bond between an amine of the at least one amine-bearing protein and a carboxyl group of the at least one saccharide-containing cross-linking molecule,
A generator module for mounting on the outside of the nacelle of a wind turbine, comprising: a generator module housing ; a generator unit arranged in the generator module housing , wherein the generator unit comprises a rotor and a stator, the stator is fixed in the generator module housing , and the rotor is rotatably fitted with the stator; a generator rotating shaft , wherein one end of the generator rotating shaft is connected to the rotor, the generator rotating shaft is provided with a belt pulley , and the belt pulley is configured to be connected to a main shaft of the wind turbine by a transmission belt ; and wherein an opening is provided at an upper portion or a lower portion of the generator module housing , to allow the transmission belt sleeved on the belt pulley to pass through the opening; or the generator rotating shaft is configured to extend to an outside of the generator module housing , and the belt pulley is provided at a portion of the generator rotating shaft that extends to the outside. a generator module housing ; a generator unit arranged in the generator module housing , wherein the generator unit comprises a rotor and a stator, the stator is fixed in the generator module housing , and the rotor is rotatably fitted with the stator; a generator rotating shaft , wherein one end of the generator rotating shaft is connected to the rotor, the generator rotating shaft is provided with a belt pulley , and the belt pulley is configured to be connected to a main shaft of the wind turbine by a transmission belt ; and wherein an opening is provided at an upper portion or a lower portion of the generator module housing , to allow the transmission belt sleeved on the belt pulley to pass through the opening; or the generator rotating shaft is configured to extend to an outside of the generator module housing , and the belt pulley is provided at a portion of the generator rotating shaft that extends to the outside.
A method of manufacturing a foam molded article, comprising the steps of: providing a foam molding resin containing low-density polyethylene, wherein the low-density polyethylene has a melt tension of 192.5 mN, a shear viscosity of 368 Pa·s, and a melt flow rate of 1.79 g/ 10min, the melt tension being measured using a melt tension tester by extruding a strand from an orifice having a diameter of 2.095 mm and a length of 8 mm at a temperature of 190 °C and an extrusion rate of 10 mm/min, wherein the melt tension is a tension of the strand wound around a roller having a diameter of 80 mm at a speed of 16 rpm, the shear viscosity being measured at a test temperature of 190 °C at an apparent shear rate of 600/second according to JIS K-7199, the melt flow rate being measured at a test temperature of 190 °C under a test load of 2.16 kg in accordance with JIS K-7210; melt-kneading the foam molding resin and a foaming agent in a foam extruder to form a melt-kneaded resin; extruding the melt-kneaded resin, from the foam extruder, to form a foam parison ; and molding the foam parison to obtain the foam molded article using a split mold , wherein the molding is selected from blow molding and vacuum molding. providing a foam molding resin containing low-density polyethylene, wherein the low-density polyethylene has a melt tension of 192.5 mN, a shear viscosity of 368 Pa·s, and a melt flow rate of 1.79 g/ 10min, the melt tension being measured using a melt tension tester by extruding a strand from an orifice having a diameter of 2.095 mm and a length of 8 mm at a temperature of 190 °C and an extrusion rate of 10 mm/min, wherein the melt tension is a tension of the strand wound around a roller having a diameter of 80 mm at a speed of 16 rpm, the shear viscosity being measured at a test temperature of 190 °C at an apparent shear rate of 600/second according to JIS K-7199, the melt flow rate being measured at a test temperature of 190 °C under a test load of 2.16 kg in accordance with JIS K-7210; melt-kneading the foam molding resin and a foaming agent in a foam extruder to form a melt-kneaded resin; extruding the melt-kneaded resin, from the foam extruder, to form a foam parison ; and molding the foam parison to obtain the foam molded article using a split mold , wherein the molding is selected from blow molding and vacuum molding.
An assembly for a turbine engine , the assembly comprising: a combustor wall including a shell , a heat shield and an annular body engaged with the shell and the heat shield ; the annular body extending through the combustor wall and at least partially defining a quench aperture along a centerline through the combustor wall , and a cooling aperture in fluid communication with the quench aperture ; wherein at least a portion of the cooling aperture extends radially outward from the quench aperture relative to the centerline ; wherein the annular body extends vertically to an exterior surface and laterally to an inner surface that at least partially defines the quench aperture , and the cooling aperture extends through the body between the exterior surface and the inner surface ; characterised in that : the body includes a shelf surface ; and the inner surface and the shelf surface define a peripheral inner channel in the body . a combustor wall including a shell , a heat shield and an annular body engaged with the shell and the heat shield ; the annular body extending through the combustor wall and at least partially defining a quench aperture along a centerline through the combustor wall , and a cooling aperture in fluid communication with the quench aperture ; wherein at least a portion of the cooling aperture extends radially outward from the quench aperture relative to the centerline ; wherein the annular body extends vertically to an exterior surface and laterally to an inner surface that at least partially defines the quench aperture , and the cooling aperture extends through the body between the exterior surface and the inner surface ; characterised in that : the body includes a shelf surface ; and the inner surface and the shelf surface define a peripheral inner channel in the body . the body includes a shelf surface ; and the inner surface and the shelf surface define a peripheral inner channel in the body .