mhurhangee/ep-ind-claims huggingface dataset:
A secure authorization server for verifying an identity of an end-user, said secure authorization server programmed to: receive, from a computing client, an authentication request at an authorization component, wherein the authentication request includes a secure authentication request identifier; validate the authentication request at the authorization component by at least validating the secure authentication request identifier; transmit an authentication response from the authorization component to the computing client, wherein the authentication response includes an authorization code, wherein the authorization code represents a validation of the authentication request and includes at least the secure authentication request identifier; receive, from the computing client, a token request at a token component, wherein the token request includes the authorization code; validate the token request, at the token component, by validating the authorization code; and transmit a token response from the token component to the computing client, wherein the token response includes an identification token associated with an authenticated session, an access token, and a lifetime in seconds of the access token. receive, from a computing client, an authentication request at an authorization component, wherein the authentication request includes a secure authentication request identifier; validate the authentication request at the authorization component by at least validating the secure authentication request identifier; transmit an authentication response from the authorization component to the computing client, wherein the authentication response includes an authorization code, wherein the authorization code represents a validation of the authentication request and includes at least the secure authentication request identifier; receive, from the computing client, a token request at a token component, wherein the token request includes the authorization code; validate the token request, at the token component, by validating the authorization code; and transmit a token response from the token component to the computing client, wherein the token response includes an identification token associated with an authenticated session, an access token, and a lifetime in seconds of the access token.
A process for the preparation of an ice cream product, wherein said product does not contain any artificial emulsifiers, stabilisers or milk powder, comprising the steps: (a) homogenising a premix comprising milk and/or cream, egg ingredients, one or more natural sweeteners and optionally salt and at a temperature in the range of 75 °C to 85 °C and a pressure in the range of 125-175 bar; (b) cooling the mixture obtained to a temperature in the range 2-10 °C; (c) optionally adding any natural flavours and/or fruit/vegetable compositions; (d) freezing the resulting mixture at a temperature of -3 °C to -10 °C in an ice cream making device defining an inlet and an outlet, by: i. feeding the resulting mixture into the inlet, ii. mixing the resulting mixture inside the ice cream making device by operating the mixing device such that the resulting mixture is scraped off the inner surface at least every tenth of a seconds (1/10 sec) or wherein the screw rotation rate is higher than 360 rpm, and iii. outputting the resulting ice cream through the outlet; and (e) subjecting the product of step d) to freezing at a temperature in the range of-11 °C to - 40 °C. (a) homogenising a premix comprising milk and/or cream, egg ingredients, one or more natural sweeteners and optionally salt and at a temperature in the range of 75 °C to 85 °C and a pressure in the range of 125-175 bar; (b) cooling the mixture obtained to a temperature in the range 2-10 °C; (c) optionally adding any natural flavours and/or fruit/vegetable compositions; (d) freezing the resulting mixture at a temperature of -3 °C to -10 °C in an ice cream making device defining an inlet and an outlet, by: i. feeding the resulting mixture into the inlet, ii. mixing the resulting mixture inside the ice cream making device by operating the mixing device such that the resulting mixture is scraped off the inner surface at least every tenth of a seconds (1/10 sec) or wherein the screw rotation rate is higher than 360 rpm, and iii. outputting the resulting ice cream through the outlet; and i. feeding the resulting mixture into the inlet, ii. mixing the resulting mixture inside the ice cream making device by operating the mixing device such that the resulting mixture is scraped off the inner surface at least every tenth of a seconds (1/10 sec) or wherein the screw rotation rate is higher than 360 rpm, and iii. outputting the resulting ice cream through the outlet; and (e) subjecting the product of step d) to freezing at a temperature in the range of-11 °C to - 40 °C.
A communication apparatus comprising a communication control section that is configured to: acquire, in a case of simultaneously performing transmission and reception of a data signal with another communication apparatus using a plurality of Links wherein each of the plurality of Links simultaneously performs transmission and reception of the data signal, first interference information concerning interference between the Links occurring in the other communication apparatus, from the other communication apparatus, and decide a transmission parameter to be used by the other communication apparatus for transmission of a data signal on a basis of the first interference information and second interference information concerning interference between the Links occurring in the communication apparatus. acquire, in a case of simultaneously performing transmission and reception of a data signal with another communication apparatus using a plurality of Links wherein each of the plurality of Links simultaneously performs transmission and reception of the data signal, first interference information concerning interference between the Links occurring in the other communication apparatus, from the other communication apparatus, and decide a transmission parameter to be used by the other communication apparatus for transmission of a data signal on a basis of the first interference information and second interference information concerning interference between the Links occurring in the communication apparatus.
A power generating system, comprising: a housing containing water; a convertible piston (g) positioned in the housing, wherein the convertible piston (g) is movable in the water contained in the water housing to displace an amount of the water, wherein said convertible piston (g) comprises at least one ballast, a weighted portion, and an inflatable bladder; wherein the convertible piston (g) is movable, in part, by gravity and by buoyancy; a first power generation stage (4, 44) to receive an amount of displaced water displaced by the convertible piston (g) to create a first amount of electrical power; a second power generation stage in fluid communication with the first power generation stage (4, 44), wherein the second power generation stage receives water outputted by the first power generation stage (4, 44) to create a second amount of electrical power; and a third power generation stage in fluid communication with the first and second power generation stages (1, 4, 44), wherein the third power generation stage receives water outputted by the first and second power generation stages (1, 4, 44) to create a third amount of electrical power. a housing containing water; a convertible piston (g) positioned in the housing, wherein the convertible piston (g) is movable in the water contained in the water housing to displace an amount of the water, wherein said convertible piston (g) comprises at least one ballast, a weighted portion, and an inflatable bladder; wherein the convertible piston (g) is movable, in part, by gravity and by buoyancy; a first power generation stage (4, 44) to receive an amount of displaced water displaced by the convertible piston (g) to create a first amount of electrical power; a second power generation stage in fluid communication with the first power generation stage (4, 44), wherein the second power generation stage receives water outputted by the first power generation stage (4, 44) to create a second amount of electrical power; and a third power generation stage in fluid communication with the first and second power generation stages (1, 4, 44), wherein the third power generation stage receives water outputted by the first and second power generation stages (1, 4, 44) to create a third amount of electrical power.
Steering-column aperture for a steering column which is functionally connected, through an opening in a driver's cab floor, to a steering gear, wherein, below the opening, there is arranged a cover plate, which is positionally stable in relation to a tiltable driver's cab and which has an aperture (8.1) for the steering column as part of a steering column guard, characterized in that, when the driver's cab is tilted, the positionally stable cover plate is not tilted together therewith.
(Currently Amended) A method of drying a cavity loaded with high level waste ("HLW") comprising: a) flowing a non-reactive gas through the cavity to absorb water in the form of water vapor; b) repetitively measuring dew point temperature of the wet non-reactive gas exiting the cavity; the method being characterized in that it further comprises: c) upon the dew point temperature of the non-reactive gas exiting the cavity being measured to remain at or below a predetermined dew point temperature for a predetermined period of time, discontinuing the flow of the non-reactive gas and sealing the cavity. a) flowing a non-reactive gas through the cavity to absorb water in the form of water vapor; b) repetitively measuring dew point temperature of the wet non-reactive gas exiting the cavity;
A 10-pole/9-slot synchronous motor comprising: nine teeth that are divided into three phases, each including three adjacent teeth, wherein a stator iron core is configured such that a value obtained by dividing b by a is larger than 0.5 where the a is a width of a teeth tip, which is provided on an inner diameter side of a tooth formed on the stator iron core, from a base portion (2b1) between the teeth tip and the tooth to a circumferential end (2c1) of the teeth tip and the b is a thickness of the teeth tip from the base portion (2b1) to an inner-diameter side surface (2c2) of the teeth tip. nine teeth that are divided into three phases, each including three adjacent teeth, wherein a stator iron core is configured such that a value obtained by dividing b by a is larger than 0.5 where the a is a width of a teeth tip, which is provided on an inner diameter side of a tooth formed on the stator iron core, from a base portion (2b1) between the teeth tip and the tooth to a circumferential end (2c1) of the teeth tip and the b is a thickness of the teeth tip from the base portion (2b1) to an inner-diameter side surface (2c2) of the teeth tip.
Method for determining the progression of the aspect angle subject to which an aircraft- or satellite-borne Inverse Synthetic Aperture RADAR, ISAR, illuminates a vehicle traveling on a road and subject to which echoes are reflected back from the vehicle to the radar, wherein the radar signals themselves are used for determining the aspect angle, characterized in that a) from the distances and changes in distance determined between the radar sensor and the vehicle on the one hand and the course of the thoroughfare on the other, the vehicle positions are determined for every point in time during the exposure by determining the points of intersection and the velocity vectors of the vehicle at these positions are determined using geometric conversions, b) the positions obtained in this way and the velocity vectors as well as the movement model for the vehicle are combined using a mathematical process, whereby the contributions from the model and the measurement values enter into the result weighted according to their accuracy, whereby the position, velocity, and acceleration of the vehicle are determined with greater accuracy, c) the aspect angle of the vehicle illumination is determined for each moment of the exposure using geometric calculation, from the viewing direction between radar sensor and vehicle, i.e. the direction of the connecting line from radar sensor to the vehicle that results from the positions of the sensor and the vehicle, and the direction of the velocity vector of the vehicle, whose direction coincides with the vehicle longitudinal axis. a) from the distances and changes in distance determined between the radar sensor and the vehicle on the one hand and the course of the thoroughfare on the other, the vehicle positions are determined for every point in time during the exposure by determining the points of intersection and the velocity vectors of the vehicle at these positions are determined using geometric conversions, b) the positions obtained in this way and the velocity vectors as well as the movement model for the vehicle are combined using a mathematical process, whereby the contributions from the model and the measurement values enter into the result weighted according to their accuracy, whereby the position, velocity, and acceleration of the vehicle are determined with greater accuracy, c) the aspect angle of the vehicle illumination is determined for each moment of the exposure using geometric calculation, from the viewing direction between radar sensor and vehicle, i.e. the direction of the connecting line from radar sensor to the vehicle that results from the positions of the sensor and the vehicle, and the direction of the velocity vector of the vehicle, whose direction coincides with the vehicle longitudinal axis.
A method for assessing the quality of medical images of at least a portion of a patient's anatomy, using a computer system, the method comprising: receiving one or more images of at least a portion of the patient's anatomy; determining, using a processor of the computer system, one or more image properties of the received images; performing, using a processor of the computer system, identification of lumen features of vessels; quantifying one or more image characteristics associated with the lumen features, wherein the one or more image characteristics include at least noise, motion, contrast, misalignment, blooming, opacification, or a combination thereof; and calculating, using a processor of the computer system, an image quality score based on the one or more image properties and the one or more image characteristics. receiving one or more images of at least a portion of the patient's anatomy; determining, using a processor of the computer system, one or more image properties of the received images; performing, using a processor of the computer system, identification of lumen features of vessels; quantifying one or more image characteristics associated with the lumen features, wherein the one or more image characteristics include at least noise, motion, contrast, misalignment, blooming, opacification, or a combination thereof; and calculating, using a processor of the computer system, an image quality score based on the one or more image properties and the one or more image characteristics.
A microscope system (100, 300), comprising: a stage for placing a test object thereon, an imaging unit (40, 70) configured to image a test object, an analysis unit configured to output a feature amount of an image which is captured by the imaging unit (40, 70), and a storage unit characterized in that said storage unit stores an evaluation function which has the image feature amount as a variable for evaluation of the image, in that said feature amount consists of a spatial frequency component, a histogram indicating the frequency of appearance of gray scale values, a contrast, or a maximal gradient of the image of the test object, wherein the maximal gradient amount is the maximal value of luminance value variations in a spatial luminance value profile, and in that said microscopy system further comprises a selection unit configured to select one image from two or more images comprising a specified image being specified based on a value of the evaluation function, and a changing unit configured to change the evaluation function based on the one image in a case where the one image selection by the selection unit is different from the specified image. a stage for placing a test object thereon, an imaging unit (40, 70) configured to image a test object, an analysis unit configured to output a feature amount of an image which is captured by the imaging unit (40, 70), and a storage unit characterized in that said storage unit stores an evaluation function which has the image feature amount as a variable for evaluation of the image, in that said feature amount consists of a spatial frequency component, a histogram indicating the frequency of appearance of gray scale values, a contrast, or a maximal gradient of the image of the test object, wherein the maximal gradient amount is the maximal value of luminance value variations in a spatial luminance value profile, and in that said microscopy system further comprises a selection unit configured to select one image from two or more images comprising a specified image being specified based on a value of the evaluation function, and a changing unit configured to change the evaluation function based on the one image in a case where the one image selection by the selection unit is different from the specified image.
An apparatus for generating a vector of digital signal samples, the apparatus comprising a digital signal processor, DSP, the DSP being configured for: receiving a discrete signal of complex data symbols, calculating frequency responses (A 1,...A M) corresponding to tones (f,... f), through an M-point DFT, and outputting a vector of length M; expanding the output vector to a new vector of length N, wherein the new vector of length N comprises entries corresponding to tones allocated to a transmitter and wherein the tones allocated to the transmitter are a non-overlapping subset of frequency tones with respect to other transmitters, inserting zero-value symbols corresponding to tones other than the tones allocated to the transmitter; and performing an N-point inverse discrete Fourier transform operation on the new vector after zero insertion to obtain the vector of digital signal samples, and generating an OFDM-based signal using the vector of digital signal samples for transmission. receiving a discrete signal of complex data symbols, calculating frequency responses (A 1,...A M) corresponding to tones (f,... f), through an M-point DFT, and outputting a vector of length M; expanding the output vector to a new vector of length N, wherein the new vector of length N comprises entries corresponding to tones allocated to a transmitter and wherein the tones allocated to the transmitter are a non-overlapping subset of frequency tones with respect to other transmitters, inserting zero-value symbols corresponding to tones other than the tones allocated to the transmitter; and performing an N-point inverse discrete Fourier transform operation on the new vector after zero insertion to obtain the vector of digital signal samples, and generating an OFDM-based signal using the vector of digital signal samples for transmission.
A composition comprising a mixture of: - potassium succinate, - potassium formate and - potassium acetate, wherein the potassium succinate is present in the mixture in an amount of at least 50% of the weight of the mixture, on a dry basis. - potassium succinate, - potassium formate and - potassium acetate, wherein the potassium succinate is present in the mixture in an amount of at least 50% of the weight of the mixture, on a dry basis.
A method for managing and processing events occurring in a real-time system wherein application treatments are periodically or aperiodically executed and communicate with one another by means of functions transmitted to a time management system, each application treatment comprising at least one call to an activation standby function, which places the treatment in a standby state for an activation function transmitted by the time management system, the functions transmitted by application treatments to the time management system comprising event generation functions, - the time management system storing all the events addressed thereto and delivering them according to their priority to a supervisor treatment by transmitting thereto the event to be processed, the supervisor treatment having access to a diagram of states and transitions modeling the operation of the real system, and - the supervisor treatment searches in the diagram of states and transitions for possible transitions from a current state of the real-time system, and for each possible transition, it determines whether the transition execution conditions specified in the diagram of states and transitions are met because of the presence of the event to be processed, and if the transition execution conditions are met, it updates the current state of the real-time system and executes actions corresponding to the transition, which are specified in the diagram of states and transitions, via the time management system, these actions relating to the management of the execution progress of the application treatments. - the time management system storing all the events addressed thereto and delivering them according to their priority to a supervisor treatment by transmitting thereto the event to be processed, the supervisor treatment having access to a diagram of states and transitions modeling the operation of the real system, and - the supervisor treatment searches in the diagram of states and transitions for possible transitions from a current state of the real-time system, and for each possible transition, it determines whether the transition execution conditions specified in the diagram of states and transitions are met because of the presence of the event to be processed, and if the transition execution conditions are met, it updates the current state of the real-time system and executes actions corresponding to the transition, which are specified in the diagram of states and transitions, via the time management system, these actions relating to the management of the execution progress of the application treatments.
A topical moisturizing composition for application on human skin containing 2-9 % by weight of urea, 2-5 % by weight of niacinamide, and a total amount of fat of 5-10.5 % by weight of the composition, wherein the combined total amount of urea and niacinamide is at least 7 % by weight of the composition.