mhurhangee/ep-ind-claims huggingface dataset:
A scanning projector (100, 400) for a display apparatus, the scanning projector comprising: a first scanning reflector (111, 411) configured to steer a light beam in at least a first plane; a second scanning reflector (112, 412) configured to steer the light beam received from the first scanning reflector in at least a second plane; and beam relay optics (121, 122) configured to relay a first pupil (105, 405) defined at the first scanning reflector to a second pupil defined at the second scanning reflector, and to relay the second pupil to an output pupil (155, 455) of the scanning projector, wherein the beam relay optics comprises a first polarization beam splitter, PBS, and a first concave reflector coupled to the first PBS, wherein the first PBS is disposed in a triple-pass configuration for routing the light beam sequentially to the first scanning reflector and to the first concave reflector in a first two passes, and toward the second scanning reflector in a third pass, and wherein the first PBS is disposed to direct the light beam sequentially to the first scanning reflector in a first pass and to the first concave reflector in a second pass, the beam relay optics further comprising a second PBS and a second concave reflector coupled to the second PBS, wherein the second PBS is disposed in a triple-pass configuration to direct the light beam received from the first PBS sequentially toward the second scanning reflector and toward the second concave reflector in a first two passes through the second PBS, and toward the output pupil in a third pass. a first scanning reflector (111, 411) configured to steer a light beam in at least a first plane; a second scanning reflector (112, 412) configured to steer the light beam received from the first scanning reflector in at least a second plane; and beam relay optics (121, 122) configured to relay a first pupil (105, 405) defined at the first scanning reflector to a second pupil defined at the second scanning reflector, and to relay the second pupil to an output pupil (155, 455) of the scanning projector, wherein the beam relay optics comprises a first polarization beam splitter, PBS, and a first concave reflector coupled to the first PBS, wherein the first PBS is disposed in a triple-pass configuration for routing the light beam sequentially to the first scanning reflector and to the first concave reflector in a first two passes, and toward the second scanning reflector in a third pass, and wherein the first PBS is disposed to direct the light beam sequentially to the first scanning reflector in a first pass and to the first concave reflector in a second pass, the beam relay optics further comprising a second PBS and a second concave reflector coupled to the second PBS, wherein the second PBS is disposed in a triple-pass configuration to direct the light beam received from the first PBS sequentially toward the second scanning reflector and toward the second concave reflector in a first two passes through the second PBS, and toward the output pupil in a third pass.
Endoprosthesis characterized by an active agent coating comprising or consisting of at least one antibiotic agent and at least one substance of the following formulas
A method performed by a media player and for determining a quality value of a video stream transmitted to the media player, comprising the steps of, for a measuring interval (ΔT) of the video stream: identifying at least two lost data packets (3, 4, 7, 8, 9) of the video stream, identifying intra coded frames (I1, I2, I3, I4) of the video stream, and characterized by the steps of: determining, for each of the intra coded frames (I1, I2, I4), that the intra coded frame has a maintained image quality if none of the lost data packets identified are associated with the intra coded frame estimating, for each of the lost packets (3, 4, 7, 8, 9) identified, a distance (D1; D2; D3; D4; D5) between the lost data packet and a next intra coded frame (I2; I4) that occurs subsequently to the lost data packet in the video stream and that has a maintained image quality, wherein said distance is defined by the difference between the sequence number of the lost data packet and the sequence number of a last data packet of the intra coded frame, and generating the quality value, based on the distances (D1, D2, D3, D4, D5). identifying at least two lost data packets (3, 4, 7, 8, 9) of the video stream, identifying intra coded frames (I1, I2, I3, I4) of the video stream, and characterized by the steps of: determining, for each of the intra coded frames (I1, I2, I4), that the intra coded frame has a maintained image quality if none of the lost data packets identified are associated with the intra coded frame estimating, for each of the lost packets (3, 4, 7, 8, 9) identified, a distance (D1; D2; D3; D4; D5) between the lost data packet and a next intra coded frame (I2; I4) that occurs subsequently to the lost data packet in the video stream and that has a maintained image quality, wherein said distance is defined by the difference between the sequence number of the lost data packet and the sequence number of a last data packet of the intra coded frame, and generating the quality value, based on the distances (D1, D2, D3, D4, D5). determining, for each of the intra coded frames (I1, I2, I4), that the intra coded frame has a maintained image quality if none of the lost data packets identified are associated with the intra coded frame estimating, for each of the lost packets (3, 4, 7, 8, 9) identified, a distance (D1; D2; D3; D4; D5) between the lost data packet and a next intra coded frame (I2; I4) that occurs subsequently to the lost data packet in the video stream and that has a maintained image quality, wherein said distance is defined by the difference between the sequence number of the lost data packet and the sequence number of a last data packet of the intra coded frame, and generating the quality value, based on the distances (D1, D2, D3, D4, D5).
A robotic mower comprising a load sensor on the robotic mower signaling a load on a cutting blade motor; a boundary sensor on the robotic mower indicating the distance from the boundary sensor to a boundary wire (103, 104); a timer on the robotic mower indicating when the robotic mower last used a specified boundary coverage; and a vehicle control unit on the robotic mower selecting a type of area coverage used by the robotic mower for mowing within the boundary wire (103, 104) from a plurality of area coverages, characterized in that the vehicle control unit selects the type of area coverage based on inputs from the load sensor, the boundary sensor and the timer, that the vehicle control unit commands a pair of traction drive motors (110, 111) to drive the robotic mower using the selected type of area coverage, and that the vehicle control unit selects a boundary coverage in which the mower is offset a specified distance away from the boundary wire (103, 104) when the timer indicates that the boundary coverage has not been executed in a preceding time period, a local area coverage with a spiral path pattern when the load sensor indicates that the load on the blade is greater than a first predetermined specified value which indicates uncut grass, and otherwise a wide area coverage in which the mower travels in a straight lines and turns when close to boundary wire (103, 104).
An electronic brake control system, comprising: a brake control unit; an electronic brake actuation controller (EBAC) electrically coupled to the BCU; and an electronic brake actuator electrically coupled to the EBAC, wherein the EBAC is configured to detect a type of the EBA based on an electrical signal from the EBA; characterized in that the EBAC further comprises a voltage sensing circuit configured to detect a voltage of the electrical signal; and in that the brake control system further comprises a sense resistor electrically coupled in series with the EBA; wherein the EBAC is configured to use a first circuit based on the voltage and the first circuit is compatible with a Hall Effect sensor. a brake control unit; an electronic brake actuation controller (EBAC) electrically coupled to the BCU; and an electronic brake actuator electrically coupled to the EBAC, wherein the EBAC is configured to detect a type of the EBA based on an electrical signal from the EBA; characterized in that the EBAC further comprises a voltage sensing circuit configured to detect a voltage of the electrical signal; and in that the brake control system further comprises a sense resistor electrically coupled in series with the EBA; wherein the EBAC is configured to use a first circuit based on the voltage and the first circuit is compatible with a Hall Effect sensor.
A process for microencapsulating a hydrophobic material comprising PUFAs, the process comprising the steps of: - preparing a micro emulsion comprising water, one or more polymers, said hydrophobic material, and at least one emulsifier, wherein said hydrophobic material forms droplets having an average size of 1 μm or smaller in said micro emulsion, - adding at least one liposoluble plasticizer, said liposoluble plasticizer providing at least 2% of the weight of said micro-emulsion, determined with respect to the weight of the non-aqueous constituents of the micro-emulsion containing all constituents and/or immediately before spray drying; and, - spray-drying said micro-emulsion. - preparing a micro emulsion comprising water, one or more polymers, said hydrophobic material, and at least one emulsifier, wherein said hydrophobic material forms droplets having an average size of 1 μm or smaller in said micro emulsion, - adding at least one liposoluble plasticizer, said liposoluble plasticizer providing at least 2% of the weight of said micro-emulsion, determined with respect to the weight of the non-aqueous constituents of the micro-emulsion containing all constituents and/or immediately before spray drying; and, - spray-drying said micro-emulsion.
A juicer comprising: a juice-extraction drum configured to crush and squeeze a juicing target and receiving a screw therein; a hopper coupled to the juice-extraction drum to define a predetermined space receiving the juicing target therein and comprising an inner protrusion protruding from an inner surface of the hopper toward a central axis of the hopper; and a blade coupled to the hopper and adapted to be rotated about the central axis of the hopper, configured to cut the juicing target before the juicing target reaches the screw, wherein the blade comprises: a lower blade adapted to be rotated in a state of closely contacting a bottom surface of the hopper; and an upper blade being configured to crush the juicing target in cooperation with the inner protrusion of the hopper characterized in that: the upper blade is bent to cover the inner protrusion of the hopper from above with respect to the bottom surface of the hopper. a juice-extraction drum configured to crush and squeeze a juicing target and receiving a screw therein; a hopper coupled to the juice-extraction drum to define a predetermined space receiving the juicing target therein and comprising an inner protrusion protruding from an inner surface of the hopper toward a central axis of the hopper; and a blade coupled to the hopper and adapted to be rotated about the central axis of the hopper, configured to cut the juicing target before the juicing target reaches the screw, wherein the blade comprises: a lower blade adapted to be rotated in a state of closely contacting a bottom surface of the hopper; and an upper blade being configured to crush the juicing target in cooperation with the inner protrusion of the hopper characterized in that: the upper blade is bent to cover the inner protrusion of the hopper from above with respect to the bottom surface of the hopper.
A security bridge, SB, for machine to machine, M2M, communication cyber-attack detection and prevention, the SB operatively wired connected to: a. at least one proximal machine; and b. at least one M2M module, the M2M module is further in communication with at least one remote machine through a wireless network, the M2M module is configured to enable communication between the at least one remote machine and the at least one proximal machine through the SB; wherein data communication between the at least one proximal machine and the at least one M2M module is conducted through the SB; the SB comprises: a. one or more inspection units, configured for identifying malicious activity; and, b. one or more decision units operatively connected to the inspection unit, the decision unit is configured to make decisions concerning the malicious activity identified by the at least one inspection unit to prevent the proximal machine, the remote machine, or both from cyber-attacks; wherein an action of the SB to prevent the cyber-attacks comprising at least one of: a. blocking at least a portion of the communication passing through the SB; and b. altering at least a portion of the content and/or at least a portion of at least one communication packet passing through the SB before transferring it to the at least one M2M module or to the proximal machine. a. at least one proximal machine; and b. at least one M2M module, the M2M module is further in communication with at least one remote machine through a wireless network, the M2M module is configured to enable communication between the at least one remote machine and the at least one proximal machine through the SB; a. one or more inspection units, configured for identifying malicious activity; and, b. one or more decision units operatively connected to the inspection unit, the decision unit is configured to make decisions concerning the malicious activity identified by the at least one inspection unit to prevent the proximal machine, the remote machine, or both from cyber-attacks; a. blocking at least a portion of the communication passing through the SB; and b. altering at least a portion of the content and/or at least a portion of at least one communication packet passing through the SB before transferring it to the at least one M2M module or to the proximal machine.
An explainer system for explaining output of a prediction system comprising a system-monitor machine learning model trained to predict states of a monitored system, wherein the monitored system comprises industrial equipment, the explainer system comprising: a perturbator configured to apply predetermined perturbations to original sample data (120, 122) collected from the monitored system to produce perturbed sample data (108, 130), the explainer system being configured to input the perturbed sample data (108, 130) to the prediction system; a tester configured to receive model output from the prediction system, the model output comprising original model output produced by the system-monitor machine learning model based on the original sample data (120, 122) and deviated model output produced by the system-monitor machine learning model based on the perturbed sample data (108, 130), the deviated model output comprising deviations from the original model output, the deviations resulting from the applied perturbations; the original model output comprising a prediction concerning one or more of (i) a future state of the monitored system; (ii) a current state of the monitored system; (iii) a problem or fault in the monitored system; and an extractor configured to receive data defining the perturbations and the resulting deviations and to extract therefrom important features for explaining the model output. a perturbator configured to apply predetermined perturbations to original sample data (120, 122) collected from the monitored system to produce perturbed sample data (108, 130), the explainer system being configured to input the perturbed sample data (108, 130) to the prediction system; a tester configured to receive model output from the prediction system, the model output comprising original model output produced by the system-monitor machine learning model based on the original sample data (120, 122) and deviated model output produced by the system-monitor machine learning model based on the perturbed sample data (108, 130), the deviated model output comprising deviations from the original model output, the deviations resulting from the applied perturbations; the original model output comprising a prediction concerning one or more of (i) a future state of the monitored system; (ii) a current state of the monitored system; (iii) a problem or fault in the monitored system; and an extractor configured to receive data defining the perturbations and the resulting deviations and to extract therefrom important features for explaining the model output.
A compound of structural Formula: or pharmaceutically acceptable salt thereof, wherein: n is 1; SP is C 4 alkylene; X is O, S or S; R 1 and R 2 are independently H, C 1-6 alkoxy, or halogen; R 3 is isobutyl; R 4 is H; R 5 is C 1-6 alkanyl; optionally R 1, R 2, R 3, R 4, and R 5 is substituted with the isotopes 2 H (deuterium), 3 H (tritium), 13 C, 15 N, 17 O, 18 O, 18 F, 31 P, 32 P, 35 S, and 36 Cl; and "*" denotes a carbon capable of being optically active. n is 1; SP is C 4 alkylene; X is O, S or S; R 1 and R 2 are independently H, C 1-6 alkoxy, or halogen; R 3 is isobutyl; R 4 is H; R 5 is C 1-6 alkanyl; optionally R 1, R 2, R 3, R 4, and R 5 is substituted with the isotopes 2 H (deuterium), 3 H (tritium), 13 C, 15 N, 17 O, 18 O, 18 F, 31 P, 32 P, 35 S, and 36 Cl; and "*" denotes a carbon capable of being optically active.
Device for controlling the movement of a movable furniture part (4 to 14) which can be moved in a driven manner relative to a stationary furniture part by means of a drive unit via a control unit for controlling the movement of the movable furniture part, the device comprising a drive unit, a control unit and additional means, wherein the control unit can be operated in an operating mode and in a configuration mode, wherein the control unit is designed to enter into a configuration mode with additional means in which the device can be configured, characterised in that the additional means comprise a separate additional component which is in the form of a plug-on part, whereby activation means are provided for the activation and/or deactivation of the configuration mode which can be switched in order to activate and/or deactivate the configuration mode.
A wind power installation with an azimuth bearing having an azimuth toothing, and at least one azimuth drive, which is coupled to an azimuth gear mechanism corresponding to the azimuth toothing, wherein the azimuth gear mechanism has a drive pinion which is rotatable about a pinion axis, wherein the drive pinion is configured to engage in the corresponding azimuth toothing of the azimuth bearing, wherein the pinion axis has a predefined reference orientation, characterized in that the wind power installation comprises at least one sensor unit which is configured to detect a deviation of the orientation of the pinion axis relative to the reference orientation. an azimuth bearing having an azimuth toothing, and at least one azimuth drive, which is coupled to an azimuth gear mechanism corresponding to the azimuth toothing, wherein the azimuth gear mechanism has a drive pinion which is rotatable about a pinion axis, wherein the drive pinion is configured to engage in the corresponding azimuth toothing of the azimuth bearing, wherein the pinion axis has a predefined reference orientation, characterized in that the wind power installation comprises at least one sensor unit which is configured to detect a deviation of the orientation of the pinion axis relative to the reference orientation.
An air conditioning system for the cooling of air, comprising an evaporator heat exchanger, wherein the air to be cooled passes through the evaporator heat exchanger, wherein a distributor structure is arranged upstream of the evaporator heat exchanger, wherein the distributor structure uniformly distributes the air to be cooled over a side of the evaporator heat exchanger facing the distributor structure, wherein the distributor structure has a bulge that rises toward the evaporator heat exchanger, characterized in that the bulge has a tip as the maximum extent toward the evaporator heat exchanger, wherein the bulge guides the air to be cooled into an area in front of the tip of the bulge, wherein the bulge is configured and arranged in relation to the evaporator heat exchanger such that a distance between the bulge and the evaporator heat exchanger decreases along a height profile of the evaporator heat exchanger, and wherein the bulge is a kind of wave the flanks of which extend toward the sides from which the air to be cooled is supplied. comprising an evaporator heat exchanger, wherein the air to be cooled passes through the evaporator heat exchanger, wherein a distributor structure is arranged upstream of the evaporator heat exchanger, wherein the distributor structure uniformly distributes the air to be cooled over a side of the evaporator heat exchanger facing the distributor structure, wherein the distributor structure has a bulge that rises toward the evaporator heat exchanger, characterized in that the bulge has a tip as the maximum extent toward the evaporator heat exchanger, wherein the bulge guides the air to be cooled into an area in front of the tip of the bulge, wherein the bulge is configured and arranged in relation to the evaporator heat exchanger such that a distance between the bulge and the evaporator heat exchanger decreases along a height profile of the evaporator heat exchanger, and wherein the bulge is a kind of wave the flanks of which extend toward the sides from which the air to be cooled is supplied.
A tire which has a tread having a contact surface intended to come into contact with ground during rolling, the tread comprising one or more of main grooves circumferentially extending, a plurality of sub grooves axially extending, and a plurality of blocks delimited by the main grooves and the sub grooves; the blocks respectively having a top face forming the contact surface of the tread, two frontal faces (8, 9) axially extending and respectively facing to one of the sub grooves, and two lateral faces (10, 11) circumferentially extending and respectively facing to one of the main grooves, the blocks also having a block width, a block length and a block height, the blocks respectively provided with one or more of incisions (12, 13, 14, 15), the tire, being characterized in that: - each of the blocks comprises surface layer A extending along the top face, and surface layer B extending along at least a wall face laterally facing to each of the incisions (12, 13, 14, 15); - each of the atomic percentages of nitrogen, oxygen and sulphur in the surface layer B is higher than those in the surface layer A, as measured by XPS (X-ray photoelectron spectroscopy), the atomic percentages being based on the total amount of carbon, nitrogen, oxygen, sulphur and silica atoms; wherein a water contact angle on the wall face of each of the incisions (12, 13, 14, 15) is lower than that on the top face by more than 30°; wherein the water contact angle on the wall face of each of the incisions (12, 13, 14, 15) is lower than 80°. - each of the blocks comprises surface layer A extending along the top face, and surface layer B extending along at least a wall face laterally facing to each of the incisions (12, 13, 14, 15); - each of the atomic percentages of nitrogen, oxygen and sulphur in the surface layer B is higher than those in the surface layer A, as measured by XPS (X-ray photoelectron spectroscopy), the atomic percentages being based on the total amount of carbon, nitrogen, oxygen, sulphur and silica atoms;