mhurhangee/patent-ind-claim-en huggingface dataset:
A lubricating oil composition used in a diesel engine equipped with a forced-induction compressor, comprising a base oil (A) containing a poly-α-olefin (A1), and a viscosity index improver (B) having an SSI (shear stability index) of 20 or less, and having a distillation amount of a light fraction of 496°C or less in a gas chromatography distillation test of less than 80% by volume, wherein the SSI is measured according to ASTM D6278 and the gas chromatography distillation test is a test method according to ASTM D6352, wherein the viscosity index improver (B) consists of the star polymer (B1) or the viscosity index improver (B) contains the star polymer (B1) and a polymethacrylate (B3), wherein the weight average molecular weight (Mw) of the star polymer (B1) is 50,000 to 750,000, wherein the weight average molecular weight (Mw) of the polymethacrylate (B3) is 50,000 to 700,000, when the viscosity index improver (B) contains the star polymer (B1) and the polymethacrylate (B3), the lubricating oil composition has a content ratio ((B1)/(B3)) in terms of resin component of the star polymer (B1) and the polymethacrylate (B3) in terms of mass ratio of 0.07 to 0.20, wherein the lubricating oil composition has a content of the star polymer (B1) in terms of resin component of 0.01 to 10% by mass based on the total amount of the lubricating oil composition, and wherein the lubricating oil composition has a content of the polymethacrylate (B3) in terms of resin component of 0.01 to 10% by mass based on the total amount of the lubricating oil composition. comprising a base oil (A) containing a poly-α-olefin (A1), and a viscosity index improver (B) having an SSI (shear stability index) of 20 or less, and having a distillation amount of a light fraction of 496°C or less in a gas chromatography distillation test of less than 80% by volume, wherein the SSI is measured according to ASTM D6278 and the gas chromatography distillation test is a test method according to ASTM D6352, wherein the viscosity index improver (B) consists of the star polymer (B1) or the viscosity index improver (B) contains the star polymer (B1) and a polymethacrylate (B3), wherein the weight average molecular weight (Mw) of the star polymer (B1) is 50,000 to 750,000, wherein the weight average molecular weight (Mw) of the polymethacrylate (B3) is 50,000 to 700,000, when the viscosity index improver (B) contains the star polymer (B1) and the polymethacrylate (B3), the lubricating oil composition has a content ratio ((B1)/(B3)) in terms of resin component of the star polymer (B1) and the polymethacrylate (B3) in terms of mass ratio of 0.07 to 0.20, wherein the lubricating oil composition has a content of the star polymer (B1) in terms of resin component of 0.01 to 10% by mass based on the total amount of the lubricating oil composition, and wherein the lubricating oil composition has a content of the polymethacrylate (B3) in terms of resin component of 0.01 to 10% by mass based on the total amount of the lubricating oil composition.
A thiol group-containing polymer represented by the following general formula: HS- (R-S r ) n -R-SH wherein R is an organic group including a -O-CH 2 -O- bond and/or a branched alkylene group, n is an integer of from 1 to 200, r is an integer of from 1 to 5, and the average value of r is 1.1 or more and lower than 1.8, wherein the thiol group-containing polymer is a liquid at room temperature, and wherein the thiol group-containing polymer has a number average molecular weight of from 500 to 50,000. wherein the thiol group-containing polymer is a liquid at room temperature, and wherein the thiol group-containing polymer has a number average molecular weight of from 500 to 50,000.
Electrochemical energy store, comprising a gas electrode, an electrolyte conducting ions and a counter electrode comprising an active material, which is present as liquid at operating temperatures between 500 and 1000° C both in at least one reduced form and also in at least one oxidised form, in which the electrochemical energy store has a container, which comprises the active material, the liquid active material is present inside the container in the form of horizontal layers and the counter electrode is made exclusively from the liquid active material or from the liquid active material and a catalyst layer, characterised in that - the electrolyte conducting ions and the gas electrode are arranged perpendicular to the ground only on one side of the housing and - the electrolyte conducting ions has a layer thickness of less than 500 μm. - the electrolyte conducting ions and the gas electrode are arranged perpendicular to the ground only on one side of the housing and - the electrolyte conducting ions has a layer thickness of less than 500 μm.
A transition device for a threshing system for an agricultural harvester, the transition device comprising: a body having an inlet end for receiving crop material from a feeder source, and an outlet end opposite the inlet end for distributing crop material into a threshing space of the threshing system; and a plurality of vanes positioned on an interior facing surface of the body for guiding the crop material through the transition device , each vane having a first end positioned either on or adjacent the inlet end of the body and a second end positioned either on or adjacent the outlet end of the body, characterized in that an arc length [L1] between the first ends of two adjacent vanes of the plurality of vanes is less than or equal to an arc length [L2] between the second ends of the two adjacent vanes of the plurality of vanes, such that the crop material can expand between the two adjacent vanes upon travelling along a trajectory from the inlet end to the outlet end of the transition device . a body having an inlet end for receiving crop material from a feeder source, and an outlet end opposite the inlet end for distributing crop material into a threshing space of the threshing system; and a plurality of vanes positioned on an interior facing surface of the body for guiding the crop material through the transition device , each vane having a first end positioned either on or adjacent the inlet end of the body and a second end positioned either on or adjacent the outlet end of the body, characterized in that an arc length [L1] between the first ends of two adjacent vanes of the plurality of vanes is less than or equal to an arc length [L2] between the second ends of the two adjacent vanes of the plurality of vanes, such that the crop material can expand between the two adjacent vanes upon travelling along a trajectory from the inlet end to the outlet end of the transition device .
A process for producing a thermoformable and/or - embossable fiber/polymer composite using a fibrous lignocellulosic substrate S and a polymer P, which comprises i) homogeneously mixing the substrate S and the polymer P, then ii) converting the substrate S/polymer P mixture to a fiber web, and then iii) compacting the resultant fiber web at a temperature not less than the glass transition temperature of the polymer P [Tg P ] to give a thermoformable and/or - embossable fiber/polymer composite, wherein a) the substrate S comprises acetylated lignocellulosic fibers, and b) the polymer P is thermoplastic and has a Tg P ≥ 20°C measured to DIN EN ISO 11357-2 (2013-05) and is used in the form of an aqueous dispersion, with a drying step after process stage i), during and/or after process stage ii), and where fibrous lignocellulosic substrate means those particles that are formed essentially from lignocellulose and have a ratio of their longest dimension to their shortest dimension of at least ≥ 5 and have a shortest dimension of ≤ 2 mm, where the shortest dimension is determined at an angle of 90° to the connecting line of the longest dimension of the particles, and wherein ≥ 0.1% and ≤ 30% by weight of polymers P is used, based on the amount of fibrous substrate S, and wherein the density of the fiber/polymer composite increases by a factor ≥ 3 compared to the corresponding fiber web. i) homogeneously mixing the substrate S and the polymer P, then ii) converting the substrate S/polymer P mixture to a fiber web, and then iii) compacting the resultant fiber web at a temperature not less than the glass transition temperature of the polymer P [Tg P ] to give a thermoformable and/or - embossable fiber/polymer composite, a) the substrate S comprises acetylated lignocellulosic fibers, and b) the polymer P is thermoplastic and has a Tg P ≥ 20°C measured to DIN EN ISO 11357-2 (2013-05) and is used in the form of an aqueous dispersion, with a drying step after process stage i), during and/or after process stage ii), and where fibrous lignocellulosic substrate means those particles that are formed essentially from lignocellulose and have a ratio of their longest dimension to their shortest dimension of at least ≥ 5 and have a shortest dimension of ≤ 2 mm, where the shortest dimension is determined at an angle of 90° to the connecting line of the longest dimension of the particles, and wherein ≥ 0.1% and ≤ 30% by weight of polymers P is used, based on the amount of fibrous substrate S, and wherein the density of the fiber/polymer composite increases by a factor ≥ 3 compared to the corresponding fiber web.
A cochlear implant system comprising: a stimulator configured to provide stimulation signals; an input source configured to receive an input representative of ambient sound and generate an input signal representative of the received input; a signal processor in communication with the stimulator and the input source, the signal processor being programmed with a transfer function such that the signal processor outputs a stimulation signal to the stimulator based on the input signal received from the input source and the transfer function; an implantable battery and/or communication module including: a signal generator configured to generate electrical signals for communication to the signal processor ; and an inverting amplifier in communication with the signal generator and configured to output inverted electrical signals; and a first lead coupling the signal processor and the implantable battery and/or communication module ; wherein the implantable battery and/or communication module is configured to provide the electrical signals from the signal generator and the inverted electrical signals from the inverting amplifier to the signal processor via the first lead . a stimulator configured to provide stimulation signals; an input source configured to receive an input representative of ambient sound and generate an input signal representative of the received input; a signal processor in communication with the stimulator and the input source, the signal processor being programmed with a transfer function such that the signal processor outputs a stimulation signal to the stimulator based on the input signal received from the input source and the transfer function; an implantable battery and/or communication module including: a signal generator configured to generate electrical signals for communication to the signal processor ; and an inverting amplifier in communication with the signal generator and configured to output inverted electrical signals; and a signal generator configured to generate electrical signals for communication to the signal processor ; and an inverting amplifier in communication with the signal generator and configured to output inverted electrical signals; and a first lead coupling the signal processor and the implantable battery and/or communication module ; wherein the implantable battery and/or communication module is configured to provide the electrical signals from the signal generator and the inverted electrical signals from the inverting amplifier to the signal processor via the first lead .
A method for extracting cynaropicrin from leaves of Cynara cardunculus, characterized in that it comprises the following steps: - lyophilisation and grinding of leaves of Cynara cardunculus, with a particle size of less than 400 μm; - selecting a solvent from ethanol or ethyl acetate in its pure state or in a mixture; - extraction of the lyophilised biomass with the solvent selected in the previous step in a closed container and protected from light. - lyophilisation and grinding of leaves of Cynara cardunculus, with a particle size of less than 400 μm; - selecting a solvent from ethanol or ethyl acetate in its pure state or in a mixture; - extraction of the lyophilised biomass with the solvent selected in the previous step in a closed container and protected from light.
An information processing method comprising: acquiring, from a device mounted on a vehicle, manual driving information indicating vehicle control when performing manual driving through a driving route section of the vehicle and indicating an operation on the vehicle by a driver of the vehicle; acquiring, from the device mounted on the vehicle, sensor information acquired via sensing on the vehicle when performing manual driving through the driving route section; generating, by estimating in simulation, automated driving information indicating vehicle control for automated driving through the driving route section, based on the sensor information; and generating automated driving possibility information indicating whether the automated driving through the driving route section is possible or not, based on comparison results of the manual driving information and the automated driving information. acquiring, from a device mounted on a vehicle, manual driving information indicating vehicle control when performing manual driving through a driving route section of the vehicle and indicating an operation on the vehicle by a driver of the vehicle; acquiring, from the device mounted on the vehicle, sensor information acquired via sensing on the vehicle when performing manual driving through the driving route section; generating, by estimating in simulation, automated driving information indicating vehicle control for automated driving through the driving route section, based on the sensor information; and generating automated driving possibility information indicating whether the automated driving through the driving route section is possible or not, based on comparison results of the manual driving information and the automated driving information.
Apparatus for securing a bicycle against undesired use, the apparatus comprising - a main body which is designed for installation in the steerer tube of a bicycle fork and can be connected thereto in a non-rotatable manner, and - a lock cylinder , which is inserted into the upper end of the main body , connected there to its housing in a non-rotatable manner and secured against removal, wherein the lock cylinder - is rotatably moveable between an open position and a locking position and - has at its lower end an eccentric rotary slide which, only in the locking position, interacts with a lock bolt arranged displaceably in the radial direction in the lateral surface of the main body in such a way that this lock bolt can be moved from a rest position, in which its distal end is at a distance from the head tube , into a blocking position, in which its distal end interacts with the head tube in a locking manner, so that rotation between the steerer tube and the head tube can be blocked, characterised in that the main body has an internal securing means cooperating with the rotary slide to prevent axial removal of the lock cylinder only in the locked position. - a main body which is designed for installation in the steerer tube of a bicycle fork and can be connected thereto in a non-rotatable manner, and - a lock cylinder , which is inserted into the upper end of the main body , connected there to its housing in a non-rotatable manner and secured against removal, wherein the lock cylinder - is rotatably moveable between an open position and a locking position and - has at its lower end an eccentric rotary slide which, only in the locking position, interacts with a lock bolt arranged displaceably in the radial direction in the lateral surface of the main body in such a way that this lock bolt can be moved from a rest position, in which its distal end is at a distance from the head tube , into a blocking position, in which its distal end interacts with the head tube in a locking manner, so that rotation between the steerer tube and the head tube can be blocked,
A method for producing a thermal insulation barrier for a wall of a fluid-tight and thermally insulative tank integrated into a support structure , said method including the following steps: - anchoring a plurality of insulative panels directly or indirectly to the support structure by means of anchor devices ; said plurality of insulative panels defining an internal support surface of a sealing membrane and including at least one opening opening at the level of said internal surface; - procuring a polymer foam insulative blocking member intended to ensure continuity of thermal insulation at the level of said opening , said insulative blocking member having an internal end ; - inserting said insulative blocking member in said opening and pushing it in the direction of the support structure until the insulative blocking member comes to bear in the direction of the support structure against a bearing member housed in said opening ; - the said process being characterized in that it further comprises the step of: - pushing the insulative blocking member in the direction of the support structure against the bearing member so as to damage irreversibly the insulative blocking member where it bears against the bearing member and so as to reduce irreversibly the dimension of the insulative blocking member between the internal end of the insulative blocking member and where the insulative blocking member bears against the bearing member until the internal end of the insulative blocking member reaches a predetermined position in said opening . - anchoring a plurality of insulative panels directly or indirectly to the support structure by means of anchor devices ; said plurality of insulative panels defining an internal support surface of a sealing membrane and including at least one opening opening at the level of said internal surface; - procuring a polymer foam insulative blocking member intended to ensure continuity of thermal insulation at the level of said opening , said insulative blocking member having an internal end ; - inserting said insulative blocking member in said opening and pushing it in the direction of the support structure until the insulative blocking member comes to bear in the direction of the support structure against a bearing member housed in said opening ; - the said process being characterized in that it further comprises the step of: - pushing the insulative blocking member in the direction of the support structure against the bearing member so as to damage irreversibly the insulative blocking member where it bears against the bearing member and so as to reduce irreversibly the dimension of the insulative blocking member between the internal end of the insulative blocking member and where the insulative blocking member bears against the bearing member until the internal end of the insulative blocking member reaches a predetermined position in said opening .
A method of operating a refrigerating machine, in particular a heat pump , which comprises a refrigeration circuit which is flowed through by a refrigerant and which has a speed-regulated compressor , wherein a desired thermal power of the refrigerating machine is requested; a rotational speed of the compressor required for providing the requested power is determined; a currently present working point of the refrigerating machine is determined, with the working point at least being defined by an evaporation temperature and a condensing temperature of the refrigerant; a permissible rotational speed range of the compressor , having an upper and lower rotational speed limit which are each associated with the currently present working point, is determined for the currently present working point of the refrigerating machine, with each working point lying in one of a plurality of ranges within which different permissible rotational speed ranges are defined; and the rotational speed of the compressor is regulated to the required rotational speed when the required rotational speed lies within the permissible rotational speed range, said rotational speed of the compressor is regulated to the lower rotational speed limit when the required rotational speed lies below the permissible rotational speed range, and said rotational speed of the compressor is regulated to the upper rotational speed limit when the required rotational speed lies above the permissible rotational speed range.
A clear cleansing composition comprising: from about 3 wt.% to about 35 wt.% of an anionic surfactant; from about 3 wt.% to about 15 wt.% of an amphoteric surfactant; from about 0.01 wt.% to about 2 wt.% cationic polymer; from about 0 wt.% to about 1.0 wt.% of inorganic salts; an aqueous carrier, wherein the composition is substantially free of sulfate based surfactant and wherein the composition has a percent transparency (% T) value of greater than about 80 as measured using the method of Measurement of % Transmittance as disclosed herein. from about 3 wt.% to about 35 wt.% of an anionic surfactant; from about 3 wt.% to about 15 wt.% of an amphoteric surfactant; from about 0.01 wt.% to about 2 wt.% cationic polymer; from about 0 wt.% to about 1.0 wt.% of inorganic salts; an aqueous carrier, wherein the composition is substantially free of sulfate based surfactant and wherein the composition has a percent transparency (% T) value of greater than about 80 as measured using the method of Measurement of % Transmittance as disclosed herein.