mhurhangee/patent-ind-claim-en huggingface dataset:
Belt sanding head , usable in a machining station of at least one mechanical piece (M), comprising: - at least one basic frame associable with at least one movement device (A) adapted to move said sanding head inside said machining station ; - at least one operating assembly provided with a plurality of swivel elements and with at least one abrasive belt closed on itself in a loop and wound at least partly around said swivel elements for the machining of said mechanical piece (M), wherein said operating assembly is associated with said basic frame and movable in rotation in both directions of rotation around at least one axis of rotation (R), during said machining, between a balance position, wherein said operating assembly and said basic frame are aligned along an axis of equilibrium (E) substantially perpendicular to said axis of rotation (R), and an unbalance position, wherein said operating assembly is rotated with respect to said axis of equilibrium (E) by an angle of rotation (α); characterized in that it comprises bi-directional pneumatic compensation means adapted to counteract the rotation of said operating assembly around said axis of rotation (R) from said balance position to said unbalance position in both directions of rotation. - at least one basic frame associable with at least one movement device (A) adapted to move said sanding head inside said machining station ; - at least one operating assembly provided with a plurality of swivel elements and with at least one abrasive belt closed on itself in a loop and wound at least partly around said swivel elements for the machining of said mechanical piece (M), wherein said operating assembly is associated with said basic frame and movable in rotation in both directions of rotation around at least one axis of rotation (R), during said machining, between a balance position, wherein said operating assembly and said basic frame are aligned along an axis of equilibrium (E) substantially perpendicular to said axis of rotation (R), and an unbalance position, wherein said operating assembly is rotated with respect to said axis of equilibrium (E) by an angle of rotation (α);
An aqueous polymer dispersion characterized in that it comprises a mixture of : a) an aqueous polymer dispersion comprising grafted rubber polymeric particles from rubber polymer being selected from natural or synthetic rubber, said synthetic rubber being selected from polyisoprene, polybutadiene or their copolymers isoprene-butadiene or from other copolymers of isoprene or of butadiene, preferably from natural rubber, b) an aqueous polymer dispersion with polymeric particles of a second polymer comprising monomeric units derived from a monomeric composition b) comprising : b1) a (meth)acrylate of a linear or branched alcohol in C 4 to C 10 or a mixture of such (meth)acrylates, said (meth)acrylate having Tg b1 lower than -30°C, preferably lower than -40°C and b2) optionally, at least one comonomer having Tg b2 higher than -30°C, preferably of Tg b2 higher than -10°C with said grafted rubber polymeric particles being grafted in an aqueous dispersion by a part of said monomeric composition b) as defined above and with said grafted part of monomeric composition b) on said rubber polymer a) representing from 25 to 50% w/w of the total weight of said monomeric composition b) involved in both grafted polymer a) and in polymer b), and in that the weight proportion of said rubber polymer a), without grafted monomers, with respect to the global weight of a) + b), represents from 10 to 35%. a) an aqueous polymer dispersion comprising grafted rubber polymeric particles from rubber polymer being selected from natural or synthetic rubber, said synthetic rubber being selected from polyisoprene, polybutadiene or their copolymers isoprene-butadiene or from other copolymers of isoprene or of butadiene, preferably from natural rubber, b) an aqueous polymer dispersion with polymeric particles of a second polymer comprising monomeric units derived from a monomeric composition b) comprising : b1) a (meth)acrylate of a linear or branched alcohol in C 4 to C 10 or a mixture of such (meth)acrylates, said (meth)acrylate having Tg b1 lower than -30°C, preferably lower than -40°C and b2) optionally, at least one comonomer having Tg b2 higher than -30°C, preferably of Tg b2 higher than -10°C with said grafted rubber polymeric particles being grafted in an aqueous dispersion by a part of said monomeric composition b) as defined above and with said grafted part of monomeric composition b) on said rubber polymer a) representing from 25 to 50% w/w of the total weight of said monomeric composition b) involved in both grafted polymer a) and in polymer b), and in that the weight proportion of said rubber polymer a), without grafted monomers, with respect to the global weight of a) + b), represents from 10 to 35%. b1) a (meth)acrylate of a linear or branched alcohol in C 4 to C 10 or a mixture of such (meth)acrylates, said (meth)acrylate having Tg b1 lower than -30°C, preferably lower than -40°C and b2) optionally, at least one comonomer having Tg b2 higher than -30°C, preferably of Tg b2 higher than -10°C
Use of a device for the horizontal transport of preferably tabular workpieces by means of a vacuum, with at least one conveyor belt driven in circulation for the workpieces to be laid thereon, and with a holding device past which the conveyor belt is guided, wherein the holding device holds the workpieces in place on the conveyor belt on the workpiece side by the generation of a vacuum at suction openings of the conveyor belt , the vacuum is generated by at least one blower , the conveyor belt is designed as a toothed conveyor belt, each suction opening opens into a suction pocket in the conveyor belt , which suction pocket has an area that is at least 5 times and at maximum 100 times the cross section of the suction opening , characterised in that the blower is designed as a radial fan that has an impeller with backwardly curved blades , the radial fan can be positioned independently and spatially separately from the holding device , the conveyor belt is guided and driven over two gearwheels mounted at the ends of the holding device , the radial fan is equipped with a spiral housing , which opens into an outlet and sucks in air at a suction opening that is oriented parallel to the shaft of the impeller and is connected to a vacuum line that communicates with the holding device , wherein the vacuum line ensures that the necessary vacuum (P) is available in or at the holding device , wherein the vacuum (P) generated by the radial fan remains virtually constant as seen over the entire volumetric flow (V). the holding device holds the workpieces in place on the conveyor belt on the workpiece side by the generation of a vacuum at suction openings of the conveyor belt , the vacuum is generated by at least one blower , the conveyor belt is designed as a toothed conveyor belt, each suction opening opens into a suction pocket in the conveyor belt , which suction pocket has an area that is at least 5 times and at maximum 100 times the cross section of the suction opening , characterised in that the blower is designed as a radial fan that has an impeller with backwardly curved blades , the radial fan can be positioned independently and spatially separately from the holding device , the conveyor belt is guided and driven over two gearwheels mounted at the ends of the holding device , the radial fan is equipped with a spiral housing , which opens into an outlet and sucks in air at a suction opening that is oriented parallel to the shaft of the impeller and is connected to a vacuum line that communicates with the holding device , wherein the vacuum line ensures that the necessary vacuum (P) is available in or at the holding device , wherein the vacuum (P) generated by the radial fan remains virtually constant as seen over the entire volumetric flow (V).
Process for processing tall oil pitch comprising: (A) a step of providing tall oil pitch at a temperature from 40 to 80°C, (B) at least one decanting step during which the tall oil pitch provided in step (A) is successively subjected to: - a step of cooling to a temperature from -20 to 25°C, - a step of heating to a temperature of 35 to 70°C, for a sufficient duration to separate the tall oil pitch into at least one supernatant light phase and a heavy phase heavier than said at least one light phase, (C) a step of recovering said at least one light phase and the heavy phase formed during step (B), said at least one light phase constituting a processed tall oil pitch. (A) a step of providing tall oil pitch at a temperature from 40 to 80°C, (B) at least one decanting step during which the tall oil pitch provided in step (A) is successively subjected to: - a step of cooling to a temperature from -20 to 25°C, - a step of heating to a temperature of 35 to 70°C, for a sufficient duration to separate the tall oil pitch into at least one supernatant light phase and a heavy phase heavier than said at least one light phase, - a step of cooling to a temperature from -20 to 25°C, - a step of heating to a temperature of 35 to 70°C, for a sufficient duration to separate the tall oil pitch into at least one supernatant light phase and a heavy phase heavier than said at least one light phase, (C) a step of recovering said at least one light phase and the heavy phase formed during step (B), said at least one light phase constituting a processed tall oil pitch.
Method for configuring a forecasting device for a technical system for forecasting a system state of the technical system, wherein the forecasting device is designed to forecast a physical behaviour of the technical system on the basis of a force acting on the technical system, wherein the acting force is determined by an approximator, comprising the following method steps: a. reading in (S1) a time series of measured system states of the technical system, b. setting configuration parameters of the approximator by iteratively - forecasting the physical behaviour of the technical system starting from a first read-in system state by way of the forecasting device and outputting (S2) a resulting system state at a given point in time, - ascertaining (S3) a deviation of this resulting system state from a measured system state at the given point in time, - modifying (S4) the configuration parameters of the approximator such that the ascertained deviation is minimized until a predefined threshold value is fallen below, - and providing (S5) the approximator modified in accordance with the ascertained configuration parameters, wherein the approximator is in the form of an artificial neural network, and wherein the configuration parameters are values of weights of the artificial neural network, and c. providing the forecasting device comprising the modified approximator (S6). a. reading in (S1) a time series of measured system states of the technical system, b. setting configuration parameters of the approximator by iteratively - forecasting the physical behaviour of the technical system starting from a first read-in system state by way of the forecasting device and outputting (S2) a resulting system state at a given point in time, - ascertaining (S3) a deviation of this resulting system state from a measured system state at the given point in time, - modifying (S4) the configuration parameters of the approximator such that the ascertained deviation is minimized until a predefined threshold value is fallen below, - and providing (S5) the approximator modified in accordance with the ascertained configuration parameters, wherein the approximator is in the form of an artificial neural network, and wherein the configuration parameters are values of weights of the artificial neural network, and - forecasting the physical behaviour of the technical system starting from a first read-in system state by way of the forecasting device and outputting (S2) a resulting system state at a given point in time, - ascertaining (S3) a deviation of this resulting system state from a measured system state at the given point in time, - modifying (S4) the configuration parameters of the approximator such that the ascertained deviation is minimized until a predefined threshold value is fallen below, - and providing (S5) the approximator modified in accordance with the ascertained configuration parameters, c. providing the forecasting device comprising the modified approximator (S6).
Product, in particular nutritional supplement, animal feed, nutritional product, pharmaceutical product, cosmetic product and/or animal feed supplement, for supplying at least one molecule that binds to a vitamine D receptor, namely vitamine D 3 and/or calcitriol and/or calcidiol, with at least one biologic material (10a; 10b; 10c) that comprises the molecule and is realized as plants and/or parts of plants and/or an extract obtained therefrom, and/or a solution and/or dispersion produced therefrom, characterised in that the molecule is present in the biological material in at least one first form, at least one second form and at least one third form, the first form being a free form, the second form being a simply glycosidic form and the third form being a multiply glycosidic form, wherein a quantitative proportion of molecules present in the first or second form and of molecules present in the third form is at least 1:2 and maximally 2:1, and the biologic material contains the molecules in a concentration of at least 50 μg/g, wherein the biological material (10a; 10b) contains at least one hydroxycinnamic acid derivate in a concentration of at least 100 μg/g, the hydroxycinnamic acid derivate being 2-hydroxy cinnamic acid, 3-hydroxy cinnamic acid, 4-hydroxy cinnamic acid, 3,4-dihydroxy cinnamic acid, chlorogenic acid, cumarine, ferulic acid or sinapic acid. characterised in that the molecule is present in the biological material in at least one first form, at least one second form and at least one third form, the first form being a free form, the second form being a simply glycosidic form and the third form being a multiply glycosidic form, wherein a quantitative proportion of molecules present in the first or second form and of molecules present in the third form is at least 1:2 and maximally 2:1, and the biologic material contains the molecules in a concentration of at least 50 μg/g, wherein the biological material (10a; 10b) contains at least one hydroxycinnamic acid derivate in a concentration of at least 100 μg/g, the hydroxycinnamic acid derivate being 2-hydroxy cinnamic acid, 3-hydroxy cinnamic acid, 4-hydroxy cinnamic acid, 3,4-dihydroxy cinnamic acid, chlorogenic acid, cumarine, ferulic acid or sinapic acid.
Method for operating a modular battery storage system, which comprises a group of n rechargeable energy storage modules, wherein • a switch is assigned to each individual one of the n energy storage modules, the respective energy storage module being able to be activated and deactivated by means of said switch, and • the n energy storage modules can be interconnected with one another by means of the switches in such a way that the individual voltages U individual of activated energy storage modules can be added to form a total voltage U total , and the method comprises the following steps a. at least one power value is identified for each of the n energy storage modules, b. a temporally variable total voltage U tot (t) is generated by virtue of at least two energy storage modules from the group being activated with a time overlap but over activation periods of different length, and c. one of the activation periods of different length is assigned to each of the at least two energy storage modules depending on the identified at least one power value, and characterized in that a state of health value, SOH value for short, or a value correlating to the SOH value is determined as power value. • a switch is assigned to each individual one of the n energy storage modules, the respective energy storage module being able to be activated and deactivated by means of said switch, and • the n energy storage modules can be interconnected with one another by means of the switches in such a way that the individual voltages U individual of activated energy storage modules can be added to form a total voltage U total , and the method comprises the following steps a. at least one power value is identified for each of the n energy storage modules, b. a temporally variable total voltage U tot (t) is generated by virtue of at least two energy storage modules from the group being activated with a time overlap but over activation periods of different length, and c. one of the activation periods of different length is assigned to each of the at least two energy storage modules depending on the identified at least one power value, and characterized in that a state of health value, SOH value for short, or a value correlating to the SOH value is determined as power value. a. at least one power value is identified for each of the n energy storage modules, b. a temporally variable total voltage U tot (t) is generated by virtue of at least two energy storage modules from the group being activated with a time overlap but over activation periods of different length, and c. one of the activation periods of different length is assigned to each of the at least two energy storage modules depending on the identified at least one power value,
A method by a wireless device for reporting a connection status, comprises: receiving a message from a network node , the message related to a mobility set associated with the wireless device ; determining, by the wireless device, that the wireless device is not connected to a WLAN access point included within a mobility set; starting a timer; attempting, by the wireless device , to establish a connection between the wireless device and at least one WLAN access point within the mobility set before an expiration of the timer; if the connection is established between the wireless device and the at least one WLAN access point within the mobility set before the expiration of the timer, stopping the timer; and if the connection is not established between the wireless device and the at least one WLAN access point within the mobility set before the expiration of the timer, sending a report to a network node to indicate a connection failure. receiving a message from a network node , the message related to a mobility set associated with the wireless device ; determining, by the wireless device, that the wireless device is not connected to a WLAN access point included within a mobility set; starting a timer; attempting, by the wireless device , to establish a connection between the wireless device and at least one WLAN access point within the mobility set before an expiration of the timer; if the connection is established between the wireless device and the at least one WLAN access point within the mobility set before the expiration of the timer, stopping the timer; and if the connection is not established between the wireless device and the at least one WLAN access point within the mobility set before the expiration of the timer, sending a report to a network node to indicate a connection failure.
Disposable straw (10; 20; 30; 40; 50) that is long-drawn in length, having a body formed by an opening at each end along the length, and a hole formed by connecting the above opening to allow the beverage to pass along the length direction, characterized in that the body is composed of 65-85 weight percent of rice flour and 15-35 weight percent of tapioca starch as main ingredients that can be processed.
A probe head rotation mechanism for a coordinate measurement device, the coordinate measurement device comprising a spindle (SP) and a probe (PB), the probe head rotation mechanism being mountable between the spindle (SP) and the probe (PB) of the coordinate measurement device, the probe head rotation mechanism comprising: a main body frame comprising a flange body for fixating the probe head rotation mechanism to an end portion of the spindle (SP); a rotor supported by the main body frame so as to be capable of tilting around rotary shaft arranged along a rotation axis (P) oriented orthogonally and radially outward to an axial direction (O) of the spindle (SP); and a drive source supported by the main body frame and configured to drive the rotor via the rotary shaft , wherein the rotation axis (P) of the drive source coincides with the rotation axis (P) of the rotary shaft ; and wherein: a main body of the drive source is arranged away from lying on the axial direction (O) of the spindle (SP), and/or a casing of the drive source is arranged outside of the main body frame in the direction of the rotation axis (P). a main body frame comprising a flange body for fixating the probe head rotation mechanism to an end portion of the spindle (SP); a rotor supported by the main body frame so as to be capable of tilting around rotary shaft arranged along a rotation axis (P) oriented orthogonally and radially outward to an axial direction (O) of the spindle (SP); and a drive source supported by the main body frame and configured to drive the rotor via the rotary shaft , wherein the rotation axis (P) of the drive source coincides with the rotation axis (P) of the rotary shaft ; and wherein: a main body of the drive source is arranged away from lying on the axial direction (O) of the spindle (SP), and/or a casing of the drive source is arranged outside of the main body frame in the direction of the rotation axis (P). a main body of the drive source is arranged away from lying on the axial direction (O) of the spindle (SP), and/or a casing of the drive source is arranged outside of the main body frame in the direction of the rotation axis (P).
A method for preparing ceramic ink, the method comprising: preparing a metal carbamate solution by dissolving a metal carbamate in a solvent; preparing a ceramic pigment by plasticizing the metal carbamate; and mixing the metal carbamate solution, the ceramic pigment and a dispersant. preparing a metal carbamate solution by dissolving a metal carbamate in a solvent; preparing a ceramic pigment by plasticizing the metal carbamate; and mixing the metal carbamate solution, the ceramic pigment and a dispersant.
A method for computing visual Simultaneous Localization and Mapping, SLAM, comprising: generating, by a visual odometry module , an odometry estimate ; creating, by a keyframe generator , keyframes and a keyframe graph ; adding constraints to the keyframe graph , using a loop constraint evaluator , based on a loop closure, wherein the loop closure is the return to previously visited locations; and optimizing, using a graph optimizer , the keyframe graph obtained in the previous step, with constraints to produce an optimized map with a trajectory ; characterized in that the loop closure constraints are weighted based on the inverse square of the metric distance between the keyframes that form the loop closure. generating, by a visual odometry module , an odometry estimate ; creating, by a keyframe generator , keyframes and a keyframe graph ; adding constraints to the keyframe graph , using a loop constraint evaluator , based on a loop closure, wherein the loop closure is the return to previously visited locations; and optimizing, using a graph optimizer , the keyframe graph obtained in the previous step, with constraints to produce an optimized map with a trajectory ; characterized in that the loop closure constraints are weighted based on the inverse square of the metric distance between the keyframes that form the loop closure.