mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a plurality of pixels in an active area (A/A) adapted to display an image, each of the plurality of pixels including an organic light emitting diode (OLED) configured to receive signals from a signal line (141a, 141b, 141c) and power from a first power line (145a, 146a, 147a) and from a second power line (145b, 146b, 147b);a flexible substrate including the active area (A/A), a non-active area (N/A) formed around the active area (A/A), a bending area (B/A), a first area, and a second area between the bending area (B/A) and a circuit mount area including therein a data driving portion configured to supply a signal through the signal line (141a, 141b, 141c) and the power through the first power line (145a, 146a, 147a, 147b) and the second power line (145b, 146b, 147b) to each of the plurality of pixels, the first area located between the active area (A/A) and the bending area (B/A), wherein the second power line (145b, 146b, 147b) and the signal line (141a, 141b, 141c) are formed to overlap each other at different layers in the flexible substrate; and the bending area (B/A) is configured to be bent flexibly and is located between the first area and the second area, the bending area (B/A) including the signal line (141a, 141b, 141c) and the first power line (145a, 146a, 147a), wherein the signal line (141a, 141b, 141c) is formed in parallel to the first power line (145a, 146a, 147a) in the bending area (B/A). a plurality of pixels in an active area (A/A) adapted to display an image, each of the plurality of pixels including an organic light emitting diode (OLED) configured to receive signals from a signal line (141a, 141b, 141c) and power from a first power line (145a, 146a, 147a) and from a second power line (145b, 146b, 147b);a flexible substrate including the active area (A/A), a non-active area (N/A) formed around the active area (A/A), a bending area (B/A), a first area, and a second area between the bending area (B/A) and a circuit mount area including therein a data driving portion configured to supply a signal through the signal line (141a, 141b, 141c) and the power through the first power line (145a, 146a, 147a, 147b) and the second power line (145b, 146b, 147b) to each of the plurality of pixels, the first area located between the active area (A/A) and the bending area (B/A), wherein the second power line (145b, 146b, 147b) and the signal line (141a, 141b, 141c) are formed to overlap each other at different layers in the flexible substrate; and the bending area (B/A) is configured to be bent flexibly and is located between the first area and the second area, the bending area (B/A) including the signal line (141a, 141b, 141c) and the first power line (145a, 146a, 147a), wherein the signal line (141a, 141b, 141c) is formed in parallel to the first power line (145a, 146a, 147a) in the bending area (B/A).
A method for visualizing ablation lesions, the method comprising: collecting, with a hyperspectral camera, a spectral data set comprising spectral images of tissue illuminated at multiple illumination wavelengths, the spectral data acquired at multiple spectral bands each at one or more acquisition wavelengths; creating a three-dimensional hyperspectral data cube based on the collected spectral data set having two spatial dimensions and one spectral dimension; unmixing the hyperspectral data cube to distinguish between the ablation lesion and an unablated tissue based on one or more spectral differences in nicotinamide adenine dinucleotide hydrogen (NADH) fluorescence between the ablation lesion and unablated tissue, by comparing the collected spectral data, pixel by pixel, to existing spectral libraries of spectra of ablated and unablated tissue or by subjecting the collected spectral data to, pixel by pixel, image processing algorithms, to determine different subsets of pixels related to ablation lesion or unablated tissue; and creating a composite image of the tissue showing the ablation lesion and the unablated tissue. collecting, with a hyperspectral camera, a spectral data set comprising spectral images of tissue illuminated at multiple illumination wavelengths, the spectral data acquired at multiple spectral bands each at one or more acquisition wavelengths; creating a three-dimensional hyperspectral data cube based on the collected spectral data set having two spatial dimensions and one spectral dimension; unmixing the hyperspectral data cube to distinguish between the ablation lesion and an unablated tissue based on one or more spectral differences in nicotinamide adenine dinucleotide hydrogen (NADH) fluorescence between the ablation lesion and unablated tissue, by comparing the collected spectral data, pixel by pixel, to existing spectral libraries of spectra of ablated and unablated tissue or by subjecting the collected spectral data to, pixel by pixel, image processing algorithms, to determine different subsets of pixels related to ablation lesion or unablated tissue; and creating a composite image of the tissue showing the ablation lesion and the unablated tissue.
A method for perception fields driving related operations, the method comprises: obtaining object information regarding objects located within an environment of a vehicle; determining, by a processor that comprises a processing circuitry, a situation of the vehicle, based on the object information; selecting, by the processor, a neural network of a group of neural networks, based on the situation; determining, by the processor, using the neural network, virtual forces that are applied on the vehicle, wherein the virtual forces represent impacts of the objects on a behavior of the vehicle; wherein the virtual forces belong to a virtual physical model; wherein the latter determining comprises: calculating, based on the virtual forces applied on the vehicle, a total virtual force that is applied on the vehicle; and determining a desired virtual acceleration of the vehicle based on a total virtual acceleration that is applied on the vehicle by the total virtual force. obtaining object information regarding objects located within an environment of a vehicle; determining, by a processor that comprises a processing circuitry, a situation of the vehicle, based on the object information; selecting, by the processor, a neural network of a group of neural networks, based on the situation; determining, by the processor, using the neural network, virtual forces that are applied on the vehicle, wherein the virtual forces represent impacts of the objects on a behavior of the vehicle; wherein the virtual forces belong to a virtual physical model; wherein the latter determining comprises: calculating, based on the virtual forces applied on the vehicle, a total virtual force that is applied on the vehicle; and determining a desired virtual acceleration of the vehicle based on a total virtual acceleration that is applied on the vehicle by the total virtual force. calculating, based on the virtual forces applied on the vehicle, a total virtual force that is applied on the vehicle; and determining a desired virtual acceleration of the vehicle based on a total virtual acceleration that is applied on the vehicle by the total virtual force.
A lockable storage container comprising: at least one base member having an outer edge region comprising a rail portion extending therealong; and at least one wall member mounted on the base member, wherein a lower edge region of the wall member comprises a skirt portion extending therealong, characterised in that the rail portion extends upwardly and defines an outer surface, an inner surface opposed to the outer surface, and an upper support surface extending therebetween, and wherein the skirt portion extends downwardly such that a first inner abutment surface of the lower edge region of the wall member abuts the outer surface of the rail portion, and a first engagement surface of the lower edge region of the wall member engages the upper support surface of the rail portion. at least one base member having an outer edge region comprising a rail portion extending therealong; and at least one wall member mounted on the base member, wherein a lower edge region of the wall member comprises a skirt portion extending therealong, characterised in that the rail portion extends upwardly and defines an outer surface, an inner surface opposed to the outer surface, and an upper support surface extending therebetween, and wherein the skirt portion extends downwardly such that a first inner abutment surface of the lower edge region of the wall member abuts the outer surface of the rail portion, and a first engagement surface of the lower edge region of the wall member engages the upper support surface of the rail portion.
A rechargeable chemical source of electric energy comprising a positive electrode (cathode) including sulphur or sulphur-based organic compounds, sulphur-based polymeric compounds or sulphur-based inorganic compounds as a depolarizer, a negative electrode (anode) made of metallic lithium or lithium-containing alloys, and an electrolyte comprising a solution of at least one salt in at least one aprotic solvent, the chemical source of electric energy being configured to generate soluble polysulphides in the electrolyte during a first stage of a two stage discharge process, characterised in that the quantity of sulphur in the depolariser and the volume of electrolyte are selected such that, after first stage discharge of the cathode, the concentration of the soluble polysulphides in the electrolyte is from 70% to 90% of the saturation concentration of the polysulphides in the electrolyte.
A multilayer composite for reducing emission of mercury from a gaseous phase, wherein a sorptive layer is deposited on a carrier core, characterised in that the following layers are deposited on both sides of the carrier core made of iron or its alloys: - an isolating layer made of iron nitride and - an externally located sorptive layer made of a mixture of iron sulfide Fe 1-x S and iron nitride Fe 2-3 N, wherein: - the carrier core thickness is in the range of 0.2 to 2.5 mm, - the isolating layer thickness is in the range of 0.001 to 0.04 mm, - the sorptive layer thickness is also in the range of 0.001 to 0.04 mm. - the volume ratio of iron sulfide to nitride in the sorptive layer is in the range of 0.2 to 4. - an isolating layer made of iron nitride and - an externally located sorptive layer made of a mixture of iron sulfide Fe 1-x S and iron nitride Fe 2-3 N, wherein: - the carrier core thickness is in the range of 0.2 to 2.5 mm, - the isolating layer thickness is in the range of 0.001 to 0.04 mm, - the sorptive layer thickness is also in the range of 0.001 to 0.04 mm. - the volume ratio of iron sulfide to nitride in the sorptive layer is in the range of 0.2 to 4.
A chimeric antigen receptor comprising: an ectodomain comprising an antigen recognition region; a transmembrane domain linked to the ectodomain, wherein the transmembrane domain comprises a transmembrane region of NKG2D in reverse orientation; and an endodomain linked to the transmembrane domain, wherein the endodomain comprises at least one signaling domain that activates an NK cell. an ectodomain comprising an antigen recognition region; a transmembrane domain linked to the ectodomain, wherein the transmembrane domain comprises a transmembrane region of NKG2D in reverse orientation; and an endodomain linked to the transmembrane domain, wherein the endodomain comprises at least one signaling domain that activates an NK cell.
A method of making a fuel cell component, the method comprising: mixing a catalyst material with a hydrophobic binder in a solvent to establish a liquid mixture having at least some coagulation of the catalyst material and the hydrophobic binder; applying the liquid mixture to at least one side of a porous gas diffusion layer; characterized in that, the method comprises: removing at least some of the solvent of the applied liquid mixture from the porous gas diffusion layer using a vacuum to pull the at least some of the solvent through the porous gas diffusion layer; and drying the catalyst material remaining on the porous gas diffusion layer under pressure. mixing a catalyst material with a hydrophobic binder in a solvent to establish a liquid mixture having at least some coagulation of the catalyst material and the hydrophobic binder; applying the liquid mixture to at least one side of a porous gas diffusion layer; removing at least some of the solvent of the applied liquid mixture from the porous gas diffusion layer using a vacuum to pull the at least some of the solvent through the porous gas diffusion layer; and drying the catalyst material remaining on the porous gas diffusion layer under pressure.
A method of operation by a node configured as a pre-allocation function in a communication network, the method comprising: obtaining predicted usage information for a user with respect to a communication service provided via the communication network; evaluating the predicted usage information in combination with account information associated with the user and configured business rules; pre-allocating a usage unit for a future use of the communication service by the user, in dependence on the evaluation, the pre-allocated usage unit covering a metered amount of usage of the communication service by the user; characterized by obtaining the predicted usage information by deriving the predicted usage information from historical usage information or by accessing the predicted usage information from a node operative as a usage prediction function that generates the predicted usage information from the historical usage information, the historical usage information being accumulated for the user, for two or more communication services for which pre-allocation is permitted, and pre-allocating the usage unit at a controlled time in advance of a predicted time of the predicted future use by pre-allocating one or more usage units for use by the user, for the two or more communication services. obtaining predicted usage information for a user with respect to a communication service provided via the communication network; evaluating the predicted usage information in combination with account information associated with the user and configured business rules; pre-allocating a usage unit for a future use of the communication service by the user, in dependence on the evaluation, the pre-allocated usage unit covering a metered amount of usage of the communication service by the user; characterized by obtaining the predicted usage information by deriving the predicted usage information from historical usage information or by accessing the predicted usage information from a node operative as a usage prediction function that generates the predicted usage information from the historical usage information, the historical usage information being accumulated for the user, for two or more communication services for which pre-allocation is permitted, and pre-allocating the usage unit at a controlled time in advance of a predicted time of the predicted future use by pre-allocating one or more usage units for use by the user, for the two or more communication services.
An apparatus, comprising: a voltage auto-detection power distribution PD controller configured to be coupled to a power supply configurable to generate any of a plurality of output voltages on a power supply output node, the voltage auto-detection PD controller is configured to: detect a device connection via a cable; characterized in that the voltage auto-detect PD controller is further configured to: iteratively assert combinations of a plurality of control signals (CTL1, CTL2) to configure the power supply to produce the plurality of output voltages on the power supply node; for each combination of the control signals, measure a value of an output voltage of the plurality of output voltages from the power supply and store a value indicative of the measured value; and generate and transmit a plurality of packets to the device, the packets containing the values indicative of the measured output voltages; and wherein the apparatus further comprises a power switch configured to couple the power supply output node to a voltage bus (110, V BUS) coupled to the device via the cable, wherein the voltage auto-detection PD controller is configured to control the power switch to be in an open state while asserting the control signal combinations and measuring the power supply output voltages.. a voltage auto-detection power distribution PD controller configured to be coupled to a power supply configurable to generate any of a plurality of output voltages on a power supply output node, the voltage auto-detection PD controller is configured to: detect a device connection via a cable; power supply configurable to generate any of a plurality of output voltages on a power supply output node, the voltage auto-detection PD controller is configured to: detect a device connection via a cable; detect a device connection via a cable; iteratively assert combinations of a plurality of control signals (CTL1, CTL2) to configure the power supply to produce the plurality of output voltages on the power supply node; for each combination of the control signals, measure a value of an output voltage of the plurality of output voltages from the power supply and store a value indicative of the measured value; and generate and transmit a plurality of packets to the device, the packets containing the values indicative of the measured output voltages; and wherein the apparatus further comprises a power switch configured to couple the power supply output node to a voltage bus (110, V BUS) coupled to the device via the cable, wherein the voltage auto-detection PD controller is configured to control the power switch to be in an open state while asserting the control signal combinations and measuring the power supply output voltages..
A method of producing a composite cured product having a porosity of less than 40%, which comprises impregnating a resin composition into a reinforcement fiber and then allowing the resin composition to react by heating at not lower than 150°C and not higher than 380°C to obtain a composite cured product, wherein the resin composition comprises 25 to 75% by mass of a component to be polymerized containing a compound represented by the following Formula and 75 to 25% by mass of a thermosetting resin selected from an epoxy resin, a bismaleimide resin and a polyimide resin, said and each being capable of undergoing reaction to increase their molecular weight when heated, by conversion to polymer (A') and cured product (B') respectively, wherein a composite cured product in which a thermoplastic resin and a cured thermosetting resin are conjugated is obtainable by allowing the resin composition to react by heating: wherein, Ar represents an aryl; X represents at least one selected from ethers, sulfides, amides, carbonates and esters and m is from 2 to 50; and wherein the resin composition further comprises a zero-valent transition metal compound. wherein, Ar represents an aryl; X represents at least one selected from ethers, sulfides, amides, carbonates and esters and m is from 2 to 50; and wherein the resin composition further comprises a zero-valent transition metal compound.
A method of operating a mobile device to access a voice service available at a cellular network, the mobile device having a cellular network interface for accessing the voice service via a cellular network base station and a non-cellular wireless local area network interface for accessing the voice service via a wireless routing device and a cellular network gateway, the method comprising: connecting to a non-cellular wireless local area network of the wireless routing device; sending a request, via the non-cellular wireless local area network interface, to the cellular network gateway to access the voice service; receiving a request, from a voice service access controller and via the non-cellular wireless local area network interface, for any observed wireless local area networks and cellular networks; generating a list of any observed non-cellular wireless local area networks and observed cellular networks; sending said list to the voice service access controller via the non-cellular wireless local area network interface; receiving, via the non-cellular wireless local area network interface, an identity of one of the listed networks from the voice service access controller, the identified network representing a candidate network for accessing the voice service; and enabling the respective cellular or non-cellular wireless network interface associated with the identified network to access the voice service. connecting to a non-cellular wireless local area network of the wireless routing device; sending a request, via the non-cellular wireless local area network interface, to the cellular network gateway to access the voice service; receiving a request, from a voice service access controller and via the non-cellular wireless local area network interface, for any observed wireless local area networks and cellular networks; generating a list of any observed non-cellular wireless local area networks and observed cellular networks; sending said list to the voice service access controller via the non-cellular wireless local area network interface; receiving, via the non-cellular wireless local area network interface, an identity of one of the listed networks from the voice service access controller, the identified network representing a candidate network for accessing the voice service; and enabling the respective cellular or non-cellular wireless network interface associated with the identified network to access the voice service.