mhurhangee/patent-ind-claim-en huggingface dataset:
A seating arrangement comprising: at least one aisle column comprising at least one high bed seating unit and at least one low bed seating unit ; and at least one non-aisle column comprising at least one high bed seating unit and at least one low bed seating unit ; wherein the at least one high bed seating unit in the at least one aisle column in the bed position is positioned laterally proximate and partially overlapping the at least one low bed seating unit in the at least one non-aisle column in the bed position; wherein the at least one low bed seating unit in the at least one aisle column in the bed position is positioned laterally proximate and partially overlapping the at least one high bed seating unit in the at least one non-aisle column in the bed position, wherein a longitudinal space is located between the at least one high bed seating unit in the at least one aisle column and the at least low bed seating unit in the at least one aisle column , so that the passengers seated in the at least one low bed seating unit in the at least one non aisle column and in the at least one high bed seating unit in the at least one non aisle column accesses an aisle via the longitudinal space . at least one aisle column comprising at least one high bed seating unit and at least one low bed seating unit ; and at least one non-aisle column comprising at least one high bed seating unit and at least one low bed seating unit ; wherein the at least one high bed seating unit in the at least one aisle column in the bed position is positioned laterally proximate and partially overlapping the at least one low bed seating unit in the at least one non-aisle column in the bed position; wherein the at least one low bed seating unit in the at least one aisle column in the bed position is positioned laterally proximate and partially overlapping the at least one high bed seating unit in the at least one non-aisle column in the bed position, wherein a longitudinal space is located between the at least one high bed seating unit in the at least one aisle column and the at least low bed seating unit in the at least one aisle column , so that the passengers seated in the at least one low bed seating unit in the at least one non aisle column and in the at least one high bed seating unit in the at least one non aisle column accesses an aisle via the longitudinal space .
A system for assembling a turbine engine component comprising: a disk comprising a groove , said groove having a bearing surface and an upper wall , wherein said groove is a tangential groove having a plurality of spaced locking slots , each locking slot being positioned at an intersection of said bearing surface and said upper wall and each locking slot having a shaped surface; a plurality of locks having a shape which matches and mates with said shaped surface of said locking slots ; and a plurality of blades comprising a blade root, characterised in that : each locking slot provides clearance such that the blade roots can rotate within the locking slots . a disk comprising a groove , said groove having a bearing surface and an upper wall , wherein said groove is a tangential groove having a plurality of spaced locking slots , each locking slot being positioned at an intersection of said bearing surface and said upper wall and each locking slot having a shaped surface; a plurality of locks having a shape which matches and mates with said shaped surface of said locking slots ; and a plurality of blades comprising a blade root, characterised in that : each locking slot provides clearance such that the blade roots can rotate within the locking slots .
A system for managing pain in a patient, the system comprising: two or more sensors configured to respectively sense two or more signals from the patient, the signals including a physiological or functional signal from the patient; a pain analyzer coupled to the two or more sensors, the pain analyzer configured to: generate a plurality of signal metrics from the sensed two or more signals and a plurality of weight factors corresponding to the plurality of signal metrics, the weight factors indicating the corresponding signal metrics reliability in representing an intensity of the pain; and generate a pain score using the plurality of signal metrics and the plurality of weight factors; and an output unit configured to output the pain score to a user or a process. two or more sensors configured to respectively sense two or more signals from the patient, the signals including a physiological or functional signal from the patient; a pain analyzer coupled to the two or more sensors, the pain analyzer configured to: generate a plurality of signal metrics from the sensed two or more signals and a plurality of weight factors corresponding to the plurality of signal metrics, the weight factors indicating the corresponding signal metrics reliability in representing an intensity of the pain; and generate a pain score using the plurality of signal metrics and the plurality of weight factors; and generate a plurality of signal metrics from the sensed two or more signals and a plurality of weight factors corresponding to the plurality of signal metrics, the weight factors indicating the corresponding signal metrics reliability in representing an intensity of the pain; and generate a pain score using the plurality of signal metrics and the plurality of weight factors; and an output unit configured to output the pain score to a user or a process.
A method for the production of a porous polymer membrane suitable for liquid filtration or analyte capture, comprising the following steps: providing a flowable liquid composition on a substrate the composition including at least: photo-activatable monomer molecules, photo activation initiator molecules and photo-activation quencher molecules; i) providing one or more pulses (L) of laser light at least one focal point (P) in the liquid composition of sufficient energy to locally polymerise the liquid composition ; ii) moving the or each focal point (P) relative to the previously polymerised liquid composition in a continuous or stepwise predetermined manner to a multiplicity of further positions; and iii) repeating the pulse(s) at those further positions such that a three dimensional matrix of the liquid composition is polymerised leaving unpolymerized areas of a size equivalent to conventional polymer membrane pores; and iv) repeating steps i) to iii) to solidify the liquid composition layer by layer. i) providing one or more pulses (L) of laser light at least one focal point (P) in the liquid composition of sufficient energy to locally polymerise the liquid composition ; ii) moving the or each focal point (P) relative to the previously polymerised liquid composition in a continuous or stepwise predetermined manner to a multiplicity of further positions; and iii) repeating the pulse(s) at those further positions such that a three dimensional matrix of the liquid composition is polymerised leaving unpolymerized areas of a size equivalent to conventional polymer membrane pores; and iv) repeating steps i) to iii) to solidify the liquid composition layer by layer.
An electrochemical device, comprising: - at least one reference electrode (RE), - at least one counter electrode (CE), - two or more working electrodes (WEs), wherein each working electrode differ from the other working electrode(s) with respect to at least one of the following characteristics: surface area, size, material, and coating, - a sample receiving area for receiving a biological sample, wherein the electrodes and the sample receiving area is fluidly connected - means for transferring the sample to the electrodes for measurement, and - means for displaying a result of the measurement. - at least one reference electrode (RE), - at least one counter electrode (CE), - two or more working electrodes (WEs), wherein each working electrode differ from the other working electrode(s) with respect to at least one of the following characteristics: surface area, size, material, and coating, - a sample receiving area for receiving a biological sample, wherein the electrodes and the sample receiving area is fluidly connected - means for transferring the sample to the electrodes for measurement, and - means for displaying a result of the measurement.
A system for affixing an Ethylene-vinyl acetate item to a rubber item, the system comprising: a chamber , the chamber comprising a first dielectric material with a cavity , the cavity configured to receive the Ethylene-vinyl acetate item and the rubber item in a layered fashion; a pressure source that applies pressure to the first dielectric material in an orientation that compresses the Ethylene-vinyl acetate item and the rubber item together; and at least one source of microwave energy that applies microwave energy to both the Ethylene-vinyl acetate item and the rubber item through the first dielectric material; the system being characterized in that a portion of the chamber has an opening, the opening being entirely filled with a second dielectric material. a chamber , the chamber comprising a first dielectric material with a cavity , the cavity configured to receive the Ethylene-vinyl acetate item and the rubber item in a layered fashion; a pressure source that applies pressure to the first dielectric material in an orientation that compresses the Ethylene-vinyl acetate item and the rubber item together; and at least one source of microwave energy that applies microwave energy to both the Ethylene-vinyl acetate item and the rubber item through the first dielectric material; the system being characterized in that a portion of the chamber has an opening, the opening being entirely filled with a second dielectric material.
Method for recording and optimizing images in real-time, comprising the following steps: • sensing a region using a sensor and generating an image representation of the region with a predefined number of pixels that specify brightness values, and dividing the image into blocks of a predefined first size, and • applying a processing function to the pixels in the image representation for the purpose of generating an image , characterized in that the following steps are performed: • creating an auxiliary image representation by downsampling the blocks to a predefined second size smaller than the predefined first size, the downsampling reducing the number of pixels within the blocks , • sorting the pixels from each downsampled block in the auxiliary image representation according to their brightness values, • determining processing parameters for each block on the basis of the sorted pixels, by means of which processing parameters the pixels of the associated block must be processed in order to attain a brightness maximization and/or contrast maximization, and • interpolating the processing function with validity for the entire image representation from the processing parameters . • sensing a region using a sensor and generating an image representation of the region with a predefined number of pixels that specify brightness values, and dividing the image into blocks of a predefined first size, and • applying a processing function to the pixels in the image representation for the purpose of generating an image , • creating an auxiliary image representation by downsampling the blocks to a predefined second size smaller than the predefined first size, the downsampling reducing the number of pixels within the blocks , • sorting the pixels from each downsampled block in the auxiliary image representation according to their brightness values, • determining processing parameters for each block on the basis of the sorted pixels, by means of which processing parameters the pixels of the associated block must be processed in order to attain a brightness maximization and/or contrast maximization, and • interpolating the processing function with validity for the entire image representation from the processing parameters .
A plastic container for storing and preserving a pharmaceutical composition, wherein the plastic container contains a pharmaceutical composition which is a solution or suspension comprising sodium benzoate and meloxicam or a pharmaceutical acceptable salt thereof, wherein the container material is polyethylene terephthalate (PET), characterized in that the plastic container has a volume of 3 ml to 8 ml.
Alight detection apparatus comprising: a first semiconductor region having a first conductivity type in which carriers having a first polarity that is the same polarity as that of the signal charge are set as majority carriers; a second semiconductor region having a second conductivity type opposite to the first conductivity type in which carriers having a second polarity are set as majority carriers; and a third semiconductor region having the first conductivity type where the signal charge is transferred from the first semiconductor region , wherein the first semiconductor region and the second semiconductor region constitute a photodiode configured to convert incident light into a signal charge and accumulate the signal charge, wherein a reverse bias voltage for causing avalanche multiplication of the signal charge is applied between the second semiconductor region and the third semiconductor region , such that a potential barrier having a height lower than the reverse bias voltage with respect to the signal charge in the first semiconductor region is formed between the first semiconductor region and the third semiconductor region , such that the signal charge is accumulated in the first semiconductor region , wherein the light detection apparatus comprises control means configured to transfer the signal charge in the first semiconductor region to the third semiconductor region in a manner that the height of the potential barrier is controlled; and circuit means configured to count a number of times of the avalanche multiplication of the signal charge is caused. a first semiconductor region having a first conductivity type in which carriers having a first polarity that is the same polarity as that of the signal charge are set as majority carriers; a second semiconductor region having a second conductivity type opposite to the first conductivity type in which carriers having a second polarity are set as majority carriers; and a third semiconductor region having the first conductivity type where the signal charge is transferred from the first semiconductor region , wherein the first semiconductor region and the second semiconductor region constitute a photodiode configured to convert incident light into a signal charge and accumulate the signal charge, wherein a reverse bias voltage for causing avalanche multiplication of the signal charge is applied between the second semiconductor region and the third semiconductor region , such that a potential barrier having a height lower than the reverse bias voltage with respect to the signal charge in the first semiconductor region is formed between the first semiconductor region and the third semiconductor region , such that the signal charge is accumulated in the first semiconductor region , wherein the light detection apparatus comprises control means configured to transfer the signal charge in the first semiconductor region to the third semiconductor region in a manner that the height of the potential barrier is controlled; and circuit means configured to count a number of times of the avalanche multiplication of the signal charge is caused.
A ship comprising a hull ; and a frictional resistance reduction apparatus comprising: an air blowing chamber arranged in the hull in a position which is lower than a draft line (L); and an air supply pipe arranged to supply air into said air blowing chamber , wherein the air blowing chamber comprises air blowing holes (240;241,242) through which the air supplied from said air supply pipe is blown out, in operation, into outboard underwater from said air blowing chamber , wherein said air blowing holes (240;241,242) are formed in a direction from a bow section to a stern section in a ship side bow section of the hull , and wherein said air blowing chamber comprises: a front plate , a back plate arranged to oppose to said front plate , a ceiling plate , a bottom plate , and side plates arranged on both ends in a longitudinal direction of said air blowing chamber ; characterized in that said air blowing holes are formed in the front plate, said air supply pipe is connected with the ceiling plate such that the air is blown downward into a space of said air blowing chamber , and a diffusion plate is disposed to divide a chamber internal space as the space of said air blowing chamber into a first part on a side of said back plate and a second part on a side of said front plate , wherein said first part and said second part are connected below said diffusion plate , and wherein said air supply pipe is connected with the part of said air blowing chamber which is between said diffusion plate and said back plate . an air blowing chamber arranged in the hull in a position which is lower than a draft line (L); and an air supply pipe arranged to supply air into said air blowing chamber , wherein the air blowing chamber comprises air blowing holes (240;241,242) through which the air supplied from said air supply pipe is blown out, in operation, into outboard underwater from said air blowing chamber , wherein said air blowing holes (240;241,242) are formed in a direction from a bow section to a stern section in a ship side bow section of the hull , and wherein said air blowing chamber comprises: a front plate , a back plate arranged to oppose to said front plate , a ceiling plate , a bottom plate , and side plates arranged on both ends in a longitudinal direction of said air blowing chamber ; a front plate , a back plate arranged to oppose to said front plate , a ceiling plate , a bottom plate , and side plates arranged on both ends in a longitudinal direction of said air blowing chamber ; characterized in that said air blowing holes are formed in the front plate, said air supply pipe is connected with the ceiling plate such that the air is blown downward into a space of said air blowing chamber , and a diffusion plate is disposed to divide a chamber internal space as the space of said air blowing chamber into a first part on a side of said back plate and a second part on a side of said front plate , wherein said first part and said second part are connected below said diffusion plate , and wherein said air supply pipe is connected with the part of said air blowing chamber which is between said diffusion plate and said back plate .
A method for sensing an environment , the method comprising analyzing at least one wireless communication signal in the environment to determine effects on the wireless communication signal by moving objects in the environment during propagation thereof, the effects being indicative of either or both: at least one characteristic of the environment, and a way in which the environment is configured; determining the effects on the wireless communication signal by using static profiles that model stable behavior in the environment, characterized in that the static profiles are determined by: obtaining one or more wireless channel measurements; pre-processing the one or more wireless channel measurements and performing a feature computation operation to identify one or more static segments; performing a static profile evaluation using the one or more static segments; performing a static profile extraction based on the evaluation; and outputting one or more static profiles.
An equipment for the production of filtering panels made up of a filtering fabric locked and tensioned inside a frame consisting of two mutually coupled half frames , said equipment including a press and a mould half movable with respect to a fixed mould half , characterized in that said moving mould half is provided with a mould insert sliding between a first position, for moulding the half frame of the panel , and a second position, for moulding the second half frame of the same panel on said half frame .
A method, comprising: generating first and second time domain directional microphone signals from sound signals received at a microphone array comprising first and second microphones positioned along a microphone axis; determining a plurality of first frequency components associated with a first frequency domain directional microphone signal (450 ) from the first time domain directional microphone signal (446 ); determining a plurality of second frequency components associated with a second frequency domain directional microphone signal (450 ) from the second time domain directional microphone signal (446 ); multiplying component wise the first frequency components with the second frequency components to generate a cross-power spectrum ; and converting the cross-power spectrum to a magnitude domain signal ; extracting phase information from at least one of the first and second frequency domain directional microphone signals (450 , 450 ), generating a combinatory microphone signal from the magnitude domain signal and the phase information . generating first and second time domain directional microphone signals from sound signals received at a microphone array comprising first and second microphones positioned along a microphone axis; determining a plurality of first frequency components associated with a first frequency domain directional microphone signal (450 ) from the first time domain directional microphone signal (446 ); determining a plurality of second frequency components associated with a second frequency domain directional microphone signal (450 ) from the second time domain directional microphone signal (446 ); multiplying component wise the first frequency components with the second frequency components to generate a cross-power spectrum ; and converting the cross-power spectrum to a magnitude domain signal ; extracting phase information from at least one of the first and second frequency domain directional microphone signals (450 , 450 ), generating a combinatory microphone signal from the magnitude domain signal and the phase information .