mhurhangee/ep-ind-claims huggingface dataset:
A low friction bearing liner (100, 230) for a solenoid, wherein the low friction bearing liner (100, 230) comprises: a core layer comprising a polyimide material; a first outer layer overlying a first surface of the core layer, wherein the first outer layer comprises a fluoropolymer material, and wherein the first outer layer has a melt flow rate of at least about 2 g/10 min at 372°C; a second outer layer overlying the first outer layer, wherein the second outer layer comprises a fluoropolymer material distinct from the fluoropolymer material of the first outer layer and wherein the second outer layer has a surface coefficient of friction of not greater than about 0.2; a first inner layer overlying a second surface of the core layer, wherein the second surface is opposite of the first surface, wherein the first inner layer comprises a fluoropolymer material, and wherein the first inner layer has a melt flow rate of at least about 2 g/10 min at 372°C; and a second inner layer overlying the first inner layer, wherein the second inner layer comprises a fluoropolymer material distinct from the fluoropolymer material of the first inner layer and wherein the second inner layer has a surface coefficient of friction of not greater than about 0.2; wherein the surface coefficient of friction of a particular layer is measured under a 9 Newton normal force at 260 mm/s in contact with a 6.35 mm (0.25 inch) polyimide wear sphere at a temperature of 140°C and lubricated with 60 cm 2 /s (6,000 cs) silicone oil. a core layer comprising a polyimide material; a first outer layer overlying a first surface of the core layer, wherein the first outer layer comprises a fluoropolymer material, and wherein the first outer layer has a melt flow rate of at least about 2 g/10 min at 372°C; a second outer layer overlying the first outer layer, wherein the second outer layer comprises a fluoropolymer material distinct from the fluoropolymer material of the first outer layer and wherein the second outer layer has a surface coefficient of friction of not greater than about 0.2; a first inner layer overlying a second surface of the core layer, wherein the second surface is opposite of the first surface, wherein the first inner layer comprises a fluoropolymer material, and wherein the first inner layer has a melt flow rate of at least about 2 g/10 min at 372°C; and a second inner layer overlying the first inner layer, wherein the second inner layer comprises a fluoropolymer material distinct from the fluoropolymer material of the first inner layer and wherein the second inner layer has a surface coefficient of friction of not greater than about 0.2; wherein the surface coefficient of friction of a particular layer is measured under a 9 Newton normal force at 260 mm/s in contact with a 6.35 mm (0.25 inch) polyimide wear sphere at a temperature of 140°C and lubricated with 60 cm 2 /s (6,000 cs) silicone oil.
A process for the manufacture of an emulsion or dispersion of one ore more carotenoid(s) comprising the following steps: a) dispersing one or more carotenoid(s) and one or more triglyceride(s) in a solvent; b) dissolving a hydrocolloid in water, wherein the concentration of the hydrocolloid in the so-derived aqueous matrix solution is in the range of from 20 to 50 weight-%, based on the total weight of the matrix solution; c) mixing the dispersion of step a) with the solution of step b); d) homogenizing the thus resulting mixture of step c); e) removing the solvent; f) filtrating the mixture with a multi-layer filter to separate a precipitated insoluble fraction of particles having an average particle size in the range of from 1 to 500 μm. a) dispersing one or more carotenoid(s) and one or more triglyceride(s) in a solvent; b) dissolving a hydrocolloid in water, wherein the concentration of the hydrocolloid in the so-derived aqueous matrix solution is in the range of from 20 to 50 weight-%, based on the total weight of the matrix solution; c) mixing the dispersion of step a) with the solution of step b); d) homogenizing the thus resulting mixture of step c); e) removing the solvent; f) filtrating the mixture with a multi-layer filter to separate a precipitated insoluble fraction of particles having an average particle size in the range of from 1 to 500 μm.
Light guide mat for producing a block-shaped or cuboid-shaped light guide body which is arranged in a casting mould and can be cast with a pourable, curable casting composition, wherein the light guide mat consists at least partly of a light-guiding plastic, wherein profiled light guide elements made from an at least partly light-guiding plastic are integrally moulded, an end-face side of which are formed as light-releasing surfaces on the upper side of the light guide body, wherein light channels for receiving point-like light-generating elements are formed in the light guide mat, and in that the light channels are integrally moulded on the side of the light guide elements close to the base, characterised in that the light guide mat consists of longitudinal bars and transverse bars (2, 3) connected to one another like a grid, wherein at the point of intersection of the longitudinal bars and transverse bars (2, 3), the profiled light guide elements are integrally moulded, wherein at least the longitudinal bars of the light guide mat are formed as the light channels for receiving the point-like, light-generating elements, wherein the light-generating elements are formed as light bars of LED elements arranged like a chain one behind another and connected to one another to be electrically conductive, of which each LED element is positioned opposite the base side of the light guide element, and the LED elements are attached on a mounting rail or are embedded in an at least partly transparent plastic strip, wherein the mounting rail or the plastic strip is mounted in the light channel to be releasable or non-releasable.
A computer implemented clustering method for a point of interest, comprising: acquiring a locating point set of a user within a preset period; generating a stay point set according to the locating point set, wherein each stay point in the stay point set represents a hot area, and the hot area meets the following conditions: a distance between geographic locations of any two locating points in the hot area is less than a maximum value of locating precision in locating precisions of the two locating points, and a maximum value of a time interval between locating points in the hot area is greater than a preset time threshold; calculating a confidence level of each stay point in the stay point set, wherein a lower average speed corresponding to movement states of all locating points in a hot area represented by a stay point indicates a higher confidence level of the stay point; obtaining a trusted stay point from the stay point set by means of screening according to the confidence level of each stay point in the stay point set, wherein a confidence level of the trusted stay point is greater than a preset confidence level threshold; and clustering density-connected trusted stay points to form a point of interest, wherein "density-connected" indicates that the hot areas represented by two trusted stay points are directly connected or indirectly connected to each other. acquiring a locating point set of a user within a preset period; generating a stay point set according to the locating point set, wherein each stay point in the stay point set represents a hot area, and the hot area meets the following conditions: a distance between geographic locations of any two locating points in the hot area is less than a maximum value of locating precision in locating precisions of the two locating points, and a maximum value of a time interval between locating points in the hot area is greater than a preset time threshold; calculating a confidence level of each stay point in the stay point set, wherein a lower average speed corresponding to movement states of all locating points in a hot area represented by a stay point indicates a higher confidence level of the stay point; obtaining a trusted stay point from the stay point set by means of screening according to the confidence level of each stay point in the stay point set, wherein a confidence level of the trusted stay point is greater than a preset confidence level threshold; and clustering density-connected trusted stay points to form a point of interest, wherein "density-connected" indicates that the hot areas represented by two trusted stay points are directly connected or indirectly connected to each other.
Method for operating a network, wherein the network comprises external network having at least one network device and internal network having at least one network device, wherein a transmission unit is also provided, which transmission unit blocks transmission of data from the external network to the internal network by means of a data diode and allows it in the opposite direction, wherein the transmission unit allows data to be transmitted only from the internal network to the external network and this transmission of data is purely physically possible only in one direction, wherein the at least one network device from the internal network transmits data with a first address to the transmission unit, wherein the transmission unit converts this first address into a second address and the data with this second address are then transmitted in the direction of the external network, wherein the second address is a destination address for the at least one network device in the external network.
A water-dispersible sheet comprising a paper substrate comprising an inner layer and two surface layers installed on both sides of the inner layer, wherein a tacky adhesive layer is installed on one of the surface layers (hereinafter referred to as "first surface layer"), wherein - the inner layer comprises papermaking fibers with a Canadian standard freeness of from 600 to 750 ml CSF and an alkalized fibrous carboxymethyl cellulose, - each of the surface layers independently comprises papermaking fibers and an alkalized fibrous carboxymethyl cellulose, - the Canadian standard freeness of the two surface layers are 425 to 525 ml CSF each, and - the content of the papermaking fibers in each surface layer is 60 to 90 weight %. - the inner layer comprises papermaking fibers with a Canadian standard freeness of from 600 to 750 ml CSF and an alkalized fibrous carboxymethyl cellulose, - each of the surface layers independently comprises papermaking fibers and an alkalized fibrous carboxymethyl cellulose, - the Canadian standard freeness of the two surface layers are 425 to 525 ml CSF each, and - the content of the papermaking fibers in each surface layer is 60 to 90 weight %.
Signal correction method for correcting a measured signal having the following steps: a) processing a digital representation of a first signal (S 1) at a first measurement input, b) processing a digital representation of a second signal (S 2) at a second measurement input corresponding to the first signal (S 1) convoluted with a transfer function, c) determining the transfer function for correcting the measured signal, d) applying a signal to be measured to the second measurement input yielding a digital representation of a third signal (S 3) at the second measurement input, e) applying a signal causing interference to the first measurement input yielding a digital representation of the signal causing interference, and f) correcting the digital representation of the third signal (S 3) by using a convolution of the digital representation of the signal causing interference and the transfer function to obtain the corrected measured signal. a) processing a digital representation of a first signal (S 1) at a first measurement input, b) processing a digital representation of a second signal (S 2) at a second measurement input corresponding to the first signal (S 1) convoluted with a transfer function, c) determining the transfer function for correcting the measured signal, d) applying a signal to be measured to the second measurement input yielding a digital representation of a third signal (S 3) at the second measurement input, e) applying a signal causing interference to the first measurement input yielding a digital representation of the signal causing interference, and f) correcting the digital representation of the third signal (S 3) by using a convolution of the digital representation of the signal causing interference and the transfer function to obtain the corrected measured signal.
Use of an antibody directed against bacterial antigen comprising a structural motif defined by the formula: on a bacterial antigen for the in vitro detection of glandular epithelial cells, nervous tissue or tumor tissue cells derived from these tissues.
An optometric apparatus, comprising: optometric apparatus bodies (51, 5r) each driven independently in fore-and-aft, right-and-left 10 and up-and-down directions and each having a function to measure objective refraction and subjective refraction of a corresponding one of a right eye and a left eye of an examinee, for respective optometry of the examinee, provided on both sides of a face receiving device; characterised by a rotating mechanism and configured to rotate around a cycloduction point of the corresponding one of the right eye and the left eye of the examinee as a center; an auto-alignment mechanism provided in each of the optometric apparatus bodies (51, 5r) and configured to automatically execute alignment for the corresponding one of the right eye and the left eye of the examinee; the apparatus being configured to set targets to a predetermined near distance after measurement by the subjective refraction for far targets is carried out, and configured to rotate the optometric apparatus bodies (51, 5r) by the rotating mechanism around the cycloduction point of the right eye and the left eye as the center according to the predetermined near distance, so as to execute objective measurement of the right eye and the left eye. optometric apparatus bodies (51, 5r) each driven independently in fore-and-aft, right-and-left 10 and up-and-down directions and each having a function to measure objective refraction and subjective refraction of a corresponding one of a right eye and a left eye of an examinee, for respective optometry of the examinee, provided on both sides of a face receiving device; characterised by a rotating mechanism and configured to rotate around a cycloduction point of the corresponding one of the right eye and the left eye of the examinee as a center; an auto-alignment mechanism provided in each of the optometric apparatus bodies (51, 5r) and configured to automatically execute alignment for the corresponding one of the right eye and the left eye of the examinee; the apparatus being configured to set targets to a predetermined near distance after measurement by the subjective refraction for far targets is carried out, and configured to rotate the optometric apparatus bodies (51, 5r) by the rotating mechanism around the cycloduction point of the right eye and the left eye as the center according to the predetermined near distance, so as to execute objective measurement of the right eye and the left eye.
An external end device for permanent catheters that is suitable for isolating a liquid flow from the environment, the external end device comprising a body connectable on one side to two catheters (2, 2), and on the other side to either a closure lid or a treatment equipment, two valves being provided in the body for interrupting the liquid flow in the two catheters, characterised in that said valves are so-called pinch valves, the body comprising a base element housing two elastic tubes (36, 36) acting as pinch valve sleeves that are compressible until the closure of their lumen and are situated downstream of their respective catheters (2, 2) and upstream of the respective connectors (18, 18), and a covering element containing two flow control units (10, 10) for said pinch valves in such a position to interact with the two elastic tubes (36, 36) in order to achieve their closure by pinching them and their opening by releasing them.
Method for detaching foldable inner bags from the inner walls of associated rigid outer containers of containers that have been produced in a co-extrusion process, wherein the inner bags have a significant rigidity and a rough surface with microscopically small protuberances and depressions and therefore adhere to the outer containers with only very low adhesion forces, without being welded thereto, and wherein the outer containers have at their base an at least partly open pinch seam in which a welded base seam of the inner bags is held, wherein a device is used which has a conveyor track for upright containers, which conveyor track is formed by a horizontal circulating conveyor belt, a vertical conveyor belt which is arranged on one side of the horizontal conveyor belt and circulates in the same direction, and a vertical stationary belt on the opposite side, characterised in that the distance (a) between the vertical conveyor belt and the stationary belt is slightly smaller than the external diameter of the containers, so that the containers, on passing between the circulating vertical conveyor belt and the stationary vertical belt, rotate about their vertical axis and in so doing are compressed laterally and the inner bags are abruptly detached from the outer containers. wherein the inner bags have a significant rigidity and a rough surface with microscopically small protuberances and depressions and therefore adhere to the outer containers with only very low adhesion forces, without being welded thereto, and wherein the outer containers have at their base an at least partly open pinch seam in which a welded base seam of the inner bags is held, wherein a device is used which has a conveyor track for upright containers, which conveyor track is formed by a horizontal circulating conveyor belt, a vertical conveyor belt which is arranged on one side of the horizontal conveyor belt and circulates in the same direction, and a vertical stationary belt on the opposite side, characterised in that the distance (a) between the vertical conveyor belt and the stationary belt is slightly smaller than the external diameter of the containers, so that the containers, on passing between the circulating vertical conveyor belt and the stationary vertical belt, rotate about their vertical axis and in so doing are compressed laterally and the inner bags are abruptly detached from the outer containers.
A compound represented by the following Formula 1: in Formula 1, R 1 is a alkyl group of 1 to 10 carbon atoms, R 2 is a divalent hydrocarbon group of 1 to 20 carbon atoms, which is unsubstituted or substituted with at least one substituent selected from the group consisting of an alkyl group of 1 to 20 carbon atoms, a cycloalkyl group of 3 to 20 carbon atoms, and an aryl group of 6 to 30 carbon atoms, R 3 to R 5 are each independently a monovalent hydrocarbon group of 1 to 20 carbon atoms, m is an integer of 0 to 2, and n is an integer of 2. R 1 is a alkyl group of 1 to 10 carbon atoms, R 2 is a divalent hydrocarbon group of 1 to 20 carbon atoms, which is unsubstituted or substituted with at least one substituent selected from the group consisting of an alkyl group of 1 to 20 carbon atoms, a cycloalkyl group of 3 to 20 carbon atoms, and an aryl group of 6 to 30 carbon atoms, R 3 to R 5 are each independently a monovalent hydrocarbon group of 1 to 20 carbon atoms, m is an integer of 0 to 2, and n is an integer of 2.
A method performed by one or more computers, the method comprising: receiving, from each of at least a subset of a set of edge devices (130a, 130b), machine learning parameters (137a, 137b) of a local machine learning model trained by the edge device, the machine learning parameters received from an edge device being parameters of the local machine learning model trained (i) by the edge device based on local network traffic processed by the edge device and (ii) to classify the network traffic as Internet of Things, loT, traffic or non-loT traffic; generating, using the machine learning parameters received from the subset of edge devices, a plurality of global machine learning models to classify network traffic processed by edge devices as loT traffic or non-loT traffic, wherein generating, using the machine learning parameters received from the subset of edge devices, the plurality of global machine learning models to classify the network traffic processed by edge devices as loT traffic or non-loT traffic comprises training respective global machine learning models for different groups of users or edge devices; and providing, for each of the different groups of users or edge devices, the corresponding global machine learning model to edge devices in the group or edge devices of users in the group, for use in classifying network traffic processed by the edge devices as loT traffic or non-loT traffic. receiving, from each of at least a subset of a set of edge devices (130a, 130b), machine learning parameters (137a, 137b) of a local machine learning model trained by the edge device, the machine learning parameters received from an edge device being parameters of the local machine learning model trained (i) by the edge device based on local network traffic processed by the edge device and (ii) to classify the network traffic as Internet of Things, loT, traffic or non-loT traffic; generating, using the machine learning parameters received from the subset of edge devices, a plurality of global machine learning models to classify network traffic processed by edge devices as loT traffic or non-loT traffic, wherein generating, using the machine learning parameters received from the subset of edge devices, the plurality of global machine learning models to classify the network traffic processed by edge devices as loT traffic or non-loT traffic comprises training respective global machine learning models for different groups of users or edge devices; and providing, for each of the different groups of users or edge devices, the corresponding global machine learning model to edge devices in the group or edge devices of users in the group, for use in classifying network traffic processed by the edge devices as loT traffic or non-loT traffic.