mhurhangee/ep-ind-claims huggingface dataset:
A method carried out by an electronic device which comprises a plurality of cameras, the method comprising: receiving, at the electronic device, a user command to capture an image using a selected one of the plurality of cameras; in response to receiving said user command, capturing a first image using the selected camera and capturing at least one second image using at least one other, non-selected, camera (101b, 101c, 101d); storing the first image to a data storage internal to the electronic device; sending the at least one second image to a data storage external of the electronic device for storage at said external storage; receiving user input relating to the first image, the user input being selected from: a zoom-in action on the first image; a crop action on the first image; a zoom-out action on the first image; and an instruction to use the first image in an application; in response to receiving said user input relating to the first image, outputting a notification to the user that the at least one second image is available; obtaining one or more of said second images from the external storage; receiving user input selecting one of said second images; and storing the selected second image in the internal storage. receiving, at the electronic device, a user command to capture an image using a selected one of the plurality of cameras; in response to receiving said user command, capturing a first image using the selected camera and capturing at least one second image using at least one other, non-selected, camera (101b, 101c, 101d); storing the first image to a data storage internal to the electronic device; sending the at least one second image to a data storage external of the electronic device for storage at said external storage; receiving user input relating to the first image, the user input being selected from: a zoom-in action on the first image; a crop action on the first image; a zoom-out action on the first image; and an instruction to use the first image in an application; in response to receiving said user input relating to the first image, outputting a notification to the user that the at least one second image is available; obtaining one or more of said second images from the external storage; receiving user input selecting one of said second images; and storing the selected second image in the internal storage.
A method for predicting responsiveness of a subject having cancer to an OX40 agonist treatment, comprising: (a) measuring the expression level of one or more marker genes in a sample comprising leukocytes obtained from the subject, wherein said one or more marker genes are selected from the group consisting of CD8a, CD8b, H2-d, CTLA4, CD64, CXCL9, IFNg, IDO1, GZMA, GZMB, PRF1, PDCA1, KLRK1, PTPRC, CXCL1, ITGAM, and IL7R; and (b) classifying the subject as a responsive or non-responsive subject based on the expression level of said one or more marker genes in the sample obtained from the subject, as compared with a reference, wherein an increased expression level of the one or more marker genes as compared with the reference indicates the subject may be responsive to an OX40 agonist treatment. (a) measuring the expression level of one or more marker genes in a sample comprising leukocytes obtained from the subject, wherein said one or more marker genes are selected from the group consisting of CD8a, CD8b, H2-d, CTLA4, CD64, CXCL9, IFNg, IDO1, GZMA, GZMB, PRF1, PDCA1, KLRK1, PTPRC, CXCL1, ITGAM, and IL7R; and (b) classifying the subject as a responsive or non-responsive subject based on the expression level of said one or more marker genes in the sample obtained from the subject, as compared with a reference, wherein an increased expression level of the one or more marker genes as compared with the reference indicates the subject may be responsive to an OX40 agonist treatment.
A method for manufacturing a composite wafer including an oxide single crystal thin film on a support wafer, the method at least comprising the steps of: implanting atomic hydrogen ions or molecular hydrogen ions through a surface of an oxide single crystal wafer that is a lithium tantalate wafer or a lithium niobate wafer to form an ion-implanted layer in the oxide single crystal wafer; subjecting at least one of the ion-implanted surface of the oxide single crystal wafer and a surface of a support wafer to be bonded to the oxide single crystal wafer, to a surface activation treatment, wherein the support wafer has a smaller thermal expansion coefficient than that of the oxide single crystal wafer by at least 7 ppm/K; after the surface activation treatment, bonding the ion-implanted surface of the oxide single crystal wafer to the surface of the support wafer to yield a laminate; subjecting the laminate to a first heat treatment at a temperature not less than 90°C and not causing cracking; applying a mechanical impact to the ion-implanted layer of the laminate after the first heat treatment, thus separating the laminate along the ion-implanted layer to yield an oxide single crystal thin film transferred onto the support wafer; and subj ecting the support wafer having the transferred oxide single crystal thin film to a second heat treatment at 250 °C to 600 °C to yield a composite wafer, wherein the atomic hydrogen ions are implanted at an implantation dose of 5.0 × 10 16 atoms/cm 2 to 2.75 × 10 17 atoms/cm 2, or the molecular hydrogen ions are implanted at an implantation dose of 2.5 × 10 16 molecules/cm 2 to 1.37 × 10 17 molecules/cm 2. implanting atomic hydrogen ions or molecular hydrogen ions through a surface of an oxide single crystal wafer that is a lithium tantalate wafer or a lithium niobate wafer to form an ion-implanted layer in the oxide single crystal wafer; subjecting at least one of the ion-implanted surface of the oxide single crystal wafer and a surface of a support wafer to be bonded to the oxide single crystal wafer, to a surface activation treatment, wherein the support wafer has a smaller thermal expansion coefficient than that of the oxide single crystal wafer by at least 7 ppm/K; after the surface activation treatment, bonding the ion-implanted surface of the oxide single crystal wafer to the surface of the support wafer to yield a laminate; subjecting the laminate to a first heat treatment at a temperature not less than 90°C and not causing cracking; applying a mechanical impact to the ion-implanted layer of the laminate after the first heat treatment, thus separating the laminate along the ion-implanted layer to yield an oxide single crystal thin film transferred onto the support wafer; and subj ecting the support wafer having the transferred oxide single crystal thin film to a second heat treatment at 250 °C to 600 °C to yield a composite wafer, wherein the atomic hydrogen ions are implanted at an implantation dose of 5.0 × 10 16 atoms/cm 2 to 2.75 × 10 17 atoms/cm 2, or the molecular hydrogen ions are implanted at an implantation dose of 2.5 × 10 16 molecules/cm 2 to 1.37 × 10 17 molecules/cm 2.
A machine comprising: a support base; a first cradle configured to hold a first electronic device; an alignment base configured to engage with an alignment mechanism of an overlay applicator, the overlay applicator comprising an overlay configured to be applied to a screen of the first electronic device; and a lid hingedly attached to the support base, wherein: the machine is configured such that the lid can be rotated with respect to the support base between an open configuration and a closed configuration; and the machine is configured in the closed configuration to facilitate applying the overlay of the overlay applicator to the screen of the first electronic device. a support base; a first cradle configured to hold a first electronic device; an alignment base configured to engage with an alignment mechanism of an overlay applicator, the overlay applicator comprising an overlay configured to be applied to a screen of the first electronic device; and a lid hingedly attached to the support base, the machine is configured such that the lid can be rotated with respect to the support base between an open configuration and a closed configuration; and the machine is configured in the closed configuration to facilitate applying the overlay of the overlay applicator to the screen of the first electronic device.
A session management method, comprising: receiving, by a first control plane network element, a user equipment, UE, context response message from a second control plane network element, wherein the UE context response message carries a first session message, wherein the first control plane network element is a target control plane network element newly connected to the UE in idle state after a control plane connection changes and the second control plane network element is a source control plane network element connected to the UE before the control plane connection changes; and sending, by the first control plane network element, a second session message to the UE in idle state according to the UE context response message, characterized in that the first session message is a pending session message, the pending session message carrying pending session information that needs to be synchronized to the UE, and the second session message containing the pending session information. receiving, by a first control plane network element, a user equipment, UE, context response message from a second control plane network element, wherein the UE context response message carries a first session message, wherein the first control plane network element is a target control plane network element newly connected to the UE in idle state after a control plane connection changes and the second control plane network element is a source control plane network element connected to the UE before the control plane connection changes; and sending, by the first control plane network element, a second session message to the UE in idle state according to the UE context response message, characterized in that the first session message is a pending session message, the pending session message carrying pending session information that needs to be synchronized to the UE, and the second session message containing the pending session information.
A method of collecting and compressing gamma spectroscopy data comprising: using a monitoring device to collect a plurality of sets of binned gamma spectroscopy data (24, 26, 28), the binned gamma spectroscopy data being represented by counts for each of a plurality of bins; receiving as an input the counts for each of the plurality of bins; reading the counts in each bin; compressing each set of data representing the counts according to each of at least two compression schemes (106, 107, 108); comparing the storage space required to store the compressed data representing the counts for each of the at least two compression schemes; choosing the compression scheme for each set of data which requires the least storage space; and writing the compressed data representing the counts for the chosen compression schemes to a data storage device (22, 110). using a monitoring device to collect a plurality of sets of binned gamma spectroscopy data (24, 26, 28), the binned gamma spectroscopy data being represented by counts for each of a plurality of bins; receiving as an input the counts for each of the plurality of bins; reading the counts in each bin; compressing each set of data representing the counts according to each of at least two compression schemes (106, 107, 108); comparing the storage space required to store the compressed data representing the counts for each of the at least two compression schemes; choosing the compression scheme for each set of data which requires the least storage space; and writing the compressed data representing the counts for the chosen compression schemes to a data storage device (22, 110).
A fuel tank comprising: a fuel tank main body that is enclosed by a floor wall, side walls (14, 16) and an upper wall, and inside which fuel is stored; and a separator (100A, 100B) including a strut (34A, 44A) provided at at least one of the floor wall or the upper wall, a first plate portion (102A, 102B) in which a first penetrating hole (110A, 110B) that penetrates in a plate thickness direction is formed, the first plate portion extending in a diametric direction from the strut, and a second plate portion (104A, 104B) in which a second penetrating hole (112A, 112B) that penetrates in a plate thickness direction is formed, the second plate portion sandwiching the strut with the first plate portion and extending in a diametric direction at an opposite side of the strut from a side thereof at which the first plate portion is disposed, characterized in that at least one of shapes, sizes or numbers of the first penetrating hole and the second penetrating hole is set to be different such that fluid resistances at the first plate portion and the second plate portion are different. a fuel tank main body that is enclosed by a floor wall, side walls (14, 16) and an upper wall, and inside which fuel is stored; and a separator (100A, 100B) including a strut (34A, 44A) provided at at least one of the floor wall or the upper wall, a first plate portion (102A, 102B) in which a first penetrating hole (110A, 110B) that penetrates in a plate thickness direction is formed, the first plate portion extending in a diametric direction from the strut, and a second plate portion (104A, 104B) in which a second penetrating hole (112A, 112B) that penetrates in a plate thickness direction is formed, the second plate portion sandwiching the strut with the first plate portion and extending in a diametric direction at an opposite side of the strut from a side thereof at which the first plate portion is disposed, a strut (34A, 44A) provided at at least one of the floor wall or the upper wall, a first plate portion (102A, 102B) in which a first penetrating hole (110A, 110B) that penetrates in a plate thickness direction is formed, the first plate portion extending in a diametric direction from the strut, and a second plate portion (104A, 104B) in which a second penetrating hole (112A, 112B) that penetrates in a plate thickness direction is formed, the second plate portion sandwiching the strut with the first plate portion and extending in a diametric direction at an opposite side of the strut from a side thereof at which the first plate portion is disposed, characterized in that at least one of shapes, sizes or numbers of the first penetrating hole and the second penetrating hole is set to be different such that fluid resistances at the first plate portion and the second plate portion are different.
A discharge circuit (310, 310A) for a capacitor coupled across the inputs of an AC-DC power supply, the discharge circuit comprising: a first normally-ON transistor; and a second normally-ON transistor, a source of the first normally-ON transistor being coupled to a source of the second normally-ON transistor, a gate of the first normally-ON transistor being coupled to a gate of the second normally-ON transistor, and the gates of the first and second normally-ON transistors (402, 404) being coupled to the sources of the first and second normally-ON transistors (402, 404), the first and second normally-ON transistors (402, 404) being configured to allow current flow through a series connection of the first normally-ON transistor and the second normally-ON transistor when an AC source coupled across the discharge circuit (310, 310A) is disconnected from the discharge circuit (310, 310A), the current flow allowing the capacitor to be discharged. a first normally-ON transistor; and a second normally-ON transistor, a source of the first normally-ON transistor being coupled to a source of the second normally-ON transistor, a gate of the first normally-ON transistor being coupled to a gate of the second normally-ON transistor, and the gates of the first and second normally-ON transistors (402, 404) being coupled to the sources of the first and second normally-ON transistors (402, 404), the first and second normally-ON transistors (402, 404) being configured to allow current flow through a series connection of the first normally-ON transistor and the second normally-ON transistor when an AC source coupled across the discharge circuit (310, 310A) is disconnected from the discharge circuit (310, 310A), the current flow allowing the capacitor to be discharged.
Face protection mask comprising a flexible filtering screen shaped to cover the mouth and nose of the user, incorporating an adhesive element projecting from the upper edge of the filtering screen and forming a flexible appendage configured to cover in use a substantial portion of the nose of the user, adhering thereto, and wherein the protection mask is a disposable surgical filtering face mask whose filtering screen consists of superimposed layers (2,3) joined together, characterised in that the adhesive element forming said flexible appendage is partially inserted and fixed by adhesion between such layers (2, 3).
A processing device, comprising: a housing; a processing unit disposed inside the housing; a cover member configured to cover openably and closeably an opening located at an upper wall of the housing; a near field communication sensor disposed at the housing; a tray member overlapping the opening from outside the housing, detachably disposed at the housing, and holding the near field communication sensor so that the near field communication sensor is disposed inside the housing, wherein the processing unit is exposed to an exterior of the housing through the opening, the near field communication sensor held by the tray member is, with the opening closed by the cover member, located between the opening surface and the cover member in an orthogonal direction orthogonal to an opening surface of the opening, characterized in that with the cover member closed, an outer surface of the cover member, and a region of an upper surface of the housing other than the cover member are flush, and the near field communication sensor is attached to an inner surface of the cover member facing the opening. a housing; a processing unit disposed inside the housing; a cover member configured to cover openably and closeably an opening located at an upper wall of the housing; a near field communication sensor disposed at the housing; a tray member overlapping the opening from outside the housing, detachably disposed at the housing, and holding the near field communication sensor so that the near field communication sensor is disposed inside the housing, wherein the processing unit is exposed to an exterior of the housing through the opening, the near field communication sensor held by the tray member is, with the opening closed by the cover member, located between the opening surface and the cover member in an orthogonal direction orthogonal to an opening surface of the opening, characterized in that with the cover member closed, an outer surface of the cover member, and a region of an upper surface of the housing other than the cover member are flush, and the near field communication sensor is attached to an inner surface of the cover member facing the opening.
A circuit breaker for protecting a load, comprising a temperature sensor that measures an ambient temperature of the circuit breaker; a primary conductor for conducting a primary current from a power source, through the circuit breaker, to the load being protected by the circuit breaker; a current transformer coupled to the primary conductor; a secondary conductor coupled to the current transformer such that a secondary current is induced in the secondary conductor in response to the primary current flowing in the primary conductor; an energy storage device configured to store energy related to the secondary current in response to the primary current passing through the primary conductor; and characterized by: a trip module, coupled to the secondary conductor and configured to receive operating power and an indication of the primary current passing through the primary conductor, including a controller programmed to continuously process a thermal model of the temperature of the primary conductor while the primary current is passing through the primary conductor, the controller configured to generate a trip signal interrupting the primary current in the primary conductor in response to the thermal model generating an output value indicative of a temperature corresponding to a trip value, the controller configured to obtain operating power from the energy storage device while the primary current is not passing through the primary conductor, the controller configured to continue processing the thermal model while the primary current is not passing through the primary conductor, until the thermal model indicates that the temperature of the primary conductor converges to about ambient temperature measured by the temperature sensor, while the controller is being powered by the energy stored in the energy storage device.
A communication control device comprising: a first transmission unit that is configured to transmit recommendation information that recommends a second frequency band as a change destination of a first frequency band utilized by a communication device permitted with a permission identifier to utilize the first frequency band; a reception unit that is configured to receive request information that requests a change in a frequency band utilization of which is permitted with the permission identifier from the first frequency band to the second frequency band; and a second transmission unit that is configured to transmit, in a case where the request information includes the permission identifier, permission information that permits a change in the frequency band utilization of which is permitted with the permission identifier from the first frequency band to the second frequency band. a first transmission unit that is configured to transmit recommendation information that recommends a second frequency band as a change destination of a first frequency band utilized by a communication device permitted with a permission identifier to utilize the first frequency band; a reception unit that is configured to receive request information that requests a change in a frequency band utilization of which is permitted with the permission identifier from the first frequency band to the second frequency band; and a second transmission unit that is configured to transmit, in a case where the request information includes the permission identifier, permission information that permits a change in the frequency band utilization of which is permitted with the permission identifier from the first frequency band to the second frequency band.
Ophthalmic lens comprising a substrate made of organic glass, having front and rear main faces, at least one primer layer deposited on at least one of the main faces of the substrate, the said primer layer comprising an aggregate of at least two-phase particles, a first phase of which consists of a polymer P1 with a soft character having a glass transition temperature (Tg) of less than 20°C and a second phase of which consists of a polymer P2 with a hard character having a glass transition temperature (Tg) of greater than 50°C, and at least one layer of an abrasion-resistant coating composition deposited on the primer layer.