mhurhangee/ep-ind-claims huggingface dataset:
Method for de-interleaving electromagnetic signals received on an array of sensors positioned on a carrier, said array of sensors being associated with a signal processing module comprising, in combination, at least the following steps: • acquiring electromagnetic signals from a plurality of distinct sources, • determining a similarity criterion from the measurement of the polarization of said electromagnetic signals from two measurements of detection D 1 and D 2 of the electromagnetic signals received on the array of sensors by using the Mahalanobis statistical distance d 2 M = V i − V j T M i + M j − 1 V i − V j where V i, V j are parameters of polarization of the detection D i, D j; M i, M j are the associated covariance matrices; the polarization measurements corresponding to D i, D j are given by a complex polarization vector (α, φ): V i = α i φ i polarization parameters of the detection D i V j = α j φ j polarization parameters of the detection D j the exponent T is the transposed sign and the index M is the Mahalanobis significance and then by computing a measurement of similarity in polarization by the formula: s V 1 V 2 = max 0, 1 − β. V 1 − V 2 T M 1 + M 2 − 1 V 1 − V 2 where β is an adjustment coefficient fixed by choosing a threshold on the Mahanalobis distance, • using said similarity criterion in an unsupervised data classification method so as to separate the sources. • acquiring electromagnetic signals from a plurality of distinct sources, • determining a similarity criterion from the measurement of the polarization of said electromagnetic signals from two measurements of detection D 1 and D 2 of the electromagnetic signals received on the array of sensors by using the Mahalanobis statistical distance d 2 M = V i − V j T M i + M j − 1 V i − V j where V i, V j are parameters of polarization of the detection D i, D j; M i, M j are the associated covariance matrices; the polarization measurements corresponding to D i, D j are given by a complex polarization vector (α, φ): V i = α i φ i polarization parameters of the detection D i V j = α j φ j polarization parameters of the detection D j the exponent T is the transposed sign and the index M is the Mahalanobis significance and then by computing a measurement of similarity in polarization by the formula: s V 1 V 2 = max 0, 1 − β. V 1 − V 2 T M 1 + M 2 − 1 V 1 − V 2 where β is an adjustment coefficient fixed by choosing a threshold on the Mahanalobis distance, • using said similarity criterion in an unsupervised data classification method so as to separate the sources.
Method of controlling at least one lift installation (ES1,..., ESm) with at least one lift unit (E1,..., En), which is connected with a power supply mains, wherein the lift installation (ES1,..., ESm) is controllable by means of a lift control (EC1,..., ECm), which belongs thereto, with consideration of first control information based on local requirements of users, and wherein the lift control (EC1,..., ECm) receives from the power supply mains second control information containing status data for the power supply mains, wherein the first and second control information (ci1, ci2) are evaluated by the lift control (EC1,..., ECm) and wherein operation, which is determined by the first control information, of the lift installation (ES1,..., ESm) is influenced by the lift control (EC1,..., ECm) in dependence on the second control information so as to enable operation optimised in terms of energy.
Cable installation which remains functional in the event of fire, comprising a ladder for vertical or inclined usage, with two ladder profiles (3, 3.1) connected to one another by rungs, and cables held to the rungs by means of cable securing elements, wherein at least one rung of the ladder, carrying cable securing elements, is isolated with its cable securing elements by means of a fire-resistant heat-insulating mounting against the outside environment in the event of fire, this mounting comprising a first housing part, made of fireproof or fire-resistant material, with a front wall and with two side walls (10, 10.1), and a fireproof housing filling to provide cladding for the housing cavity, wherein the mounting comprises a second housing part in the form of a back plate, for closing the first housing part at the rear, the width of which corresponds at least to the span width of the side walls (10, 10.1), in order to provide a support surface for the face surfaces of the side walls (10, 10.1), as well as tensioning plates (14, 14.1) assigned to it and arranged on its outside in the region of the lateral edge region of the back plate, and also securing elements (17, 19) for connecting the back plate to the ladder, as well as securing means (20, 21, 22) for connecting the first housing part to the ladder in order to hold it with the face surfaces of its side walls (10, 10.1) supported on the front side of the back plate, such that both housing parts (8, 11) are supported on the ladder.
A cooking appliance comprising: a chassis defining a cooking chamber and having an access opening; a heating element located within the chassis; a door pivotably mounted to the chassis, the door being movable between a closed position to close the access opening and an opened position to open the access opening; a transparent touchscreen provided on the door; a first camera mounted to the chassis for imaging the cooking chamber and configured to generate a first signal representative an image of a food item contained within the cooking chamber for display on the transparent, touchscreen display; characterized in that the cooking appliance further comprises: a second camera provided on the chassis for imaging the environment surrounding the cooking appliance and configured to determine a position and movement of a user and generate a second signal representative of the position and movement of the user; and a controller communicatively and operably coupled to the transparent, touchscreen display, the first camera, and the second camera, and configured to receive the first signal and the second signal, and display the image of the food item contained within the cooking chamber on the transparent, touchscreen display as an augmented image of the food item that is adjustable based upon the position and movement of the user as determined by the second signal. a chassis defining a cooking chamber and having an access opening; a heating element located within the chassis; a door pivotably mounted to the chassis, the door being movable between a closed position to close the access opening and an opened position to open the access opening; a transparent touchscreen provided on the door; a first camera mounted to the chassis for imaging the cooking chamber and configured to generate a first signal representative an image of a food item contained within the cooking chamber for display on the transparent, touchscreen display; a second camera provided on the chassis for imaging the environment surrounding the cooking appliance and configured to determine a position and movement of a user and generate a second signal representative of the position and movement of the user; and a controller communicatively and operably coupled to the transparent, touchscreen display, the first camera, and the second camera, and configured to receive the first signal and the second signal, and display the image of the food item contained within the cooking chamber on the transparent, touchscreen display as an augmented image of the food item that is adjustable based upon the position and movement of the user as determined by the second signal.
An underwater positioning system for providing position information for a rover, or for providing pixel coordinates for a rover, wherein the rover is adapted for deployment in a body of water and for moving within a reference frame, wherein the system comprises: - a light source (530a, 530b, 530c) provided in or on the rover and moveable together with the rover between different positions with respect to the reference frame; - a beacon provided with an underwater imaging device and adapted for deployment in the body of water at a fixed position with respect to the reference frame, wherein the underwater imaging device is configured to observe the light source at the different positions and to determine direction data representing a direction or change in direction of the light source with respect to the imaging device; - an orientation sensor comprised by the rover, configured to determine an orientation of the rover with respect to the reference frame and to generate orientation data, and - a scaling element (512, 528, 530) for providing scaling data representative of a distance between the imaging device and the light source; wherein the beacon further comprises: - a processor configured to determine the position information for the rover from the direction data and the scaling data, or configured to determine the pixel coordinates which are the pixel coordinates of the light source detected in images acquired by the imaging device, and - a communication device configured to transmit the position information or the pixel coordinates through the body of water to the rover. - a light source (530a, 530b, 530c) provided in or on the rover and moveable together with the rover between different positions with respect to the reference frame; - a beacon provided with an underwater imaging device and adapted for deployment in the body of water at a fixed position with respect to the reference frame, wherein the underwater imaging device is configured to observe the light source at the different positions and to determine direction data representing a direction or change in direction of the light source with respect to the imaging device; - an orientation sensor comprised by the rover, configured to determine an orientation of the rover with respect to the reference frame and to generate orientation data, and - a scaling element (512, 528, 530) for providing scaling data representative of a distance between the imaging device and the light source; - a processor configured to determine the position information for the rover from the direction data and the scaling data, or configured to determine the pixel coordinates which are the pixel coordinates of the light source detected in images acquired by the imaging device, and - a communication device configured to transmit the position information or the pixel coordinates through the body of water to the rover.
A device for radiating light to capture an iris of a user, the device comprising: a lens unit including a lens array of arranged lenses; a light source configured to radiate light beams into the iris of the user via the arranged lenses by emitting the light beams toward the arranged lenses; wherein the lens array is positioned between the light source and the iris; characterised by a controller configured to change positions of the arranged lenses based on a distance between the device and the iris. a lens unit including a lens array of arranged lenses; a light source configured to radiate light beams into the iris of the user via the arranged lenses by emitting the light beams toward the arranged lenses; wherein the lens array is positioned between the light source and the iris;
A method of preparing an edible oleogel comprising: combining an edible triacylglycerol oil or triacylglycerol fat and ethylcellulose in a weight ratio of from 99:1 to 80:20 to form a mixture, and heating and agitating the mixture at a temperature within the range of from 140 to 200 °C for 20 to 90 min to form an oleogel, wherein the edible triacylglycerol oil or triacylglycerol fat has a iodine value of at least 30 determined according to AOCS Official method Cd 1-25 (Wijs method) and the heating and agitating is conducted under an inert atmosphere. combining an edible triacylglycerol oil or triacylglycerol fat and ethylcellulose in a weight ratio of from 99:1 to 80:20 to form a mixture, and heating and agitating the mixture at a temperature within the range of from 140 to 200 °C for 20 to 90 min to form an oleogel, wherein the edible triacylglycerol oil or triacylglycerol fat has a iodine value of at least 30 determined according to AOCS Official method Cd 1-25 (Wijs method) and the heating and agitating is conducted under an inert atmosphere.
A scale for a crop collection device which comprises: - a tray; - and a plate for fixing the scale to a support (14, 18) of the crop collection device, characterised in that the fixing plate comprises a clamping surface which comprises a central through recess which opens longitudinally at its two ends and which is able to receive a longitudinal section of an inflatable flexible envelope interposed vertically between the clamping surface and a facing portion of the support. - a tray; - and a plate for fixing the scale to a support (14, 18) of the crop collection device,
Cover comprising a planar support, which in the circumferential direction is delimited by a border, and a fixing tape, wherein the fixing tape adjoins the border and encloses the support in the circumferential direction, characterized in that the fixing tape has at least one portion (5, 6) which is elastically resilient in the circumferential direction, and at least two portions (7, 8) which are non-elastically resilient in the circumferential direction, and in that the at least one elastically resilient portion (5, 6), when viewed in the circumferential direction, is disposed between the two non-elastically resilient portions (7, 8).
A method of analyzing a fluid sample from an oil or gas reservoir comprising: collecting the sample in a sample container, wherein the step of collecting includes placing the sample container into a well, wherein the well penetrates a subterranean formation, wherein the oil or gas reservoir is the subterranean formation or is located adjacent to the subterranean formation, wherein the sample container includes a sample receptacle, and wherein the step of collecting comprises allowing or causing the sample to flow into the sample receptacle; removing the sample container from the well, wherein the step of removing is performed after the step of collecting; retrieving the sample receptacle from the sample container, wherein the step of retrieving is performed after the step of removing; and determining at least one property of the sample, wherein the step of determining is performed during or after the step of collecting; characterised in that the sample container includes at least one heating element; and wherein the step of determining comprises using a multivariate optical element MOE calculation device. collecting the sample in a sample container, wherein the step of collecting includes placing the sample container into a well, wherein the well penetrates a subterranean formation, wherein the oil or gas reservoir is the subterranean formation or is located adjacent to the subterranean formation, wherein the sample container includes a sample receptacle, and wherein the step of collecting comprises allowing or causing the sample to flow into the sample receptacle; removing the sample container from the well, wherein the step of removing is performed after the step of collecting; retrieving the sample receptacle from the sample container, wherein the step of retrieving is performed after the step of removing; and determining at least one property of the sample, wherein the step of determining is performed during or after the step of collecting; wherein the step of determining comprises using a multivariate optical element MOE calculation device.
Apparatus, comprising: means (40, 46, 48) for causing display of a virtual object (21; 21a) at a first position in virtual space, the virtual object having a visual position and an aural position at the first position, said aural position being a position of audio emanating from the virtual object; means (40, 46, 48) for processing positional audio data based on the aural position of the virtual object being at the first position; means (40, 46, 48) for causing positional audio to be output at the first position to a user based on the processed positional audio data; means (40, 46, 48) for changing the aural position of the virtual object from the first position to a second position in the virtual space, while maintaining the visual position of the virtual object at the first position; means (40, 46, 48) for further processing positional audio data based on the aural position of the virtual object being at the second position; and means (40, 46, 48) for causing positional audio to be output at the second position to the user based on the further processed positional audio data, while maintaining the visual position of the virtual object at the first position. means (40, 46, 48) for causing display of a virtual object (21; 21a) at a first position in virtual space, the virtual object having a visual position and an aural position at the first position, said aural position being a position of audio emanating from the virtual object; means (40, 46, 48) for processing positional audio data based on the aural position of the virtual object being at the first position; means (40, 46, 48) for causing positional audio to be output at the first position to a user based on the processed positional audio data; means (40, 46, 48) for changing the aural position of the virtual object from the first position to a second position in the virtual space, while maintaining the visual position of the virtual object at the first position; means (40, 46, 48) for further processing positional audio data based on the aural position of the virtual object being at the second position; and means (40, 46, 48) for causing positional audio to be output at the second position to the user based on the further processed positional audio data, while maintaining the visual position of the virtual object at the first position.
An apparatus (100, 200) comprising: a plurality of circuits operating in respective clock domains (110, 120, 130, 210, 220, 230), each circuit including a semiconductor body region through which at least one clock signal path passes; a clock circuit (150, 250) configured and arranged to generate and provide respective clock signals for each respective clock domain; a respective timing sensor (112, 122, 132, 212, 222, 232) for each respective clock domain, wherein each timing sensor is configured to detect timing characteristics of the at least one clock signal path that passes through the semiconductor body region of the circuit of that respective clock domain; and a respective local bias circuit (114, 124, 134) for each respective clock domain, wherein each local bias circuit is coupled to the semiconductor body region of the circuit of that respective domain and is configured to independently bias the semiconductor body region of the circuit of that respective clock domain at a bias level that is based on the detected timing characteristics of the at least one clock signal path that passes through the semiconductor body region of the circuit of that respective clock domain. a plurality of circuits operating in respective clock domains (110, 120, 130, 210, 220, 230), each circuit including a semiconductor body region through which at least one clock signal path passes; a clock circuit (150, 250) configured and arranged to generate and provide respective clock signals for each respective clock domain; a respective timing sensor (112, 122, 132, 212, 222, 232) for each respective clock domain, wherein each timing sensor is configured to detect timing characteristics of the at least one clock signal path that passes through the semiconductor body region of the circuit of that respective clock domain; and a respective local bias circuit (114, 124, 134) for each respective clock domain, wherein each local bias circuit is coupled to the semiconductor body region of the circuit of that respective domain and is configured to independently bias the semiconductor body region of the circuit of that respective clock domain at a bias level that is based on the detected timing characteristics of the at least one clock signal path that passes through the semiconductor body region of the circuit of that respective clock domain.
An image pickup unit for an endoscope, comprising: a dioptric system that is adapted to reflect a luminous flux of an optical image incident on an optical lens group and perform optical path conversion; an image sensor in a bare state that is joined to one surface of the dioptric system, and includes a light receiving element on which the luminous flux is incident and forms the optical image; and a light shielding member that is placed to be opposed to and cover a plurality of surfaces of the dioptric system around an optical axis of the optical lens group, except for the one surface of the dioptric system joined to the image sensor and is formed from a metal thin film, wherein the light shielding member is extended to positions where the light shielding member is superimposed on side surfaces of the image sensor to have a predetermined distance (g) from the side surfaces of the image sensor so that the light shielding member is opposed to the plurality of surfaces except for the one surface of the dioptric system so as to have the predetermined distance (g) from the plurality of surfaces, and that the light shielding member covers the one surface of the dioptric system and side surfaces of the image sensor so as to have a predetermined length L from the one surface of the dioptric system to the image sensor aside. a dioptric system that is adapted to reflect a luminous flux of an optical image incident on an optical lens group and perform optical path conversion; an image sensor in a bare state that is joined to one surface of the dioptric system, and includes a light receiving element on which the luminous flux is incident and forms the optical image; and a light shielding member that is placed to be opposed to and cover a plurality of surfaces of the dioptric system around an optical axis of the optical lens group, except for the one surface of the dioptric system joined to the image sensor and is formed from a metal thin film, wherein the light shielding member is extended to positions where the light shielding member is superimposed on side surfaces of the image sensor to have a predetermined distance (g) from the side surfaces of the image sensor so that the light shielding member is opposed to the plurality of surfaces except for the one surface of the dioptric system so as to have the predetermined distance (g) from the plurality of surfaces, and that the light shielding member covers the one surface of the dioptric system and side surfaces of the image sensor so as to have a predetermined length L from the one surface of the dioptric system to the image sensor aside.