mhurhangee/ep-ind-claims huggingface dataset:
A method for using display content from a rich operating system, OS, environment as a background image in a trusted user interface, UI, comprising: capturing a display buffer of the rich OS environment; passing the captured display buffer to a Trusted Application; and displaying, with the Trusted Application, the captured display buffer as the background image in the trusted UI, wherein the Trusted Application is executed in a Trusted Execution Environment, TEE. capturing a display buffer of the rich OS environment; passing the captured display buffer to a Trusted Application; and displaying, with the Trusted Application, the captured display buffer as the background image in the trusted UI, wherein the Trusted Application is executed in a Trusted Execution Environment, TEE.
Device for determining the core body temperature of a subject, said device comprising: - an image data input for obtaining image data of a subject's skin, - a thermal sensor data input for obtaining thermal sensor data of the subject's skin, - an image analysis unit for deriving photoplethysmography, PPG, signals from the obtained image data and for detecting one or more skin areas having the strongest PPG amplitude signals, and - a temperature determination unit for determining the core body temperature of the subject from obtained thermal sensor data for the detected one or more skin areas. - an image data input for obtaining image data of a subject's skin, - a thermal sensor data input for obtaining thermal sensor data of the subject's skin, - an image analysis unit for deriving photoplethysmography, PPG, signals from the obtained image data and for detecting one or more skin areas having the strongest PPG amplitude signals, and - a temperature determination unit for determining the core body temperature of the subject from obtained thermal sensor data for the detected one or more skin areas.
A method for displaying character information in an image-taking device, which obtains an image signal representing a subject continuously at a predetermined cycle, displays a live video preview on a display device based on the obtained image signal and detects a character image included in the live preview based on the obtained image signal, and superimposes character information representing the characters in the detected character image or translation of thereof on the live preview for display in the vicinity of the character image on the live preview, the method characterized by comprising the steps of: detecting a movement of the image-taking device from the time of obtaining the image used for the character detection; and correcting a display position of the character information according to the detected movement of the image-taking device on a basis of the display position of the character information relative to the image used for the character detection. detecting a movement of the image-taking device from the time of obtaining the image used for the character detection; and correcting a display position of the character information according to the detected movement of the image-taking device on a basis of the display position of the character information relative to the image used for the character detection.
Method for the production of a tissue-engineered medical device, comprising the following steps: A.) providing a polymer scaffold, said polymer scaffold comprising a substrate comprising polyglycolic acid, and a coating comprising poly-4-hydroxybutyrate; B.) application of a cell suspension containing isolated and expanded cells to the polymer scaffold, thereby producing a seeded polymer scaffold; C.) placement of the seeded polymer scaffold in a bioreactor and mechanical stimulation by exposure to a pulsatile flux of incremental intensity, thereby forming a tissue-engineered medical device comprising an extracellular matrix; D.) mounting of the tissue-engineered medical device on a conduit stabilizer and incubation under static conditions in a cell culture medium; E.) decellularisation of the tissue-engineered medical device in a washing solution comprising a detergent; F.) nuclease treatment of the tissue-engineered medical device; G.) rinsing of the tissue-engineered medical device. A.) providing a polymer scaffold, said polymer scaffold comprising a substrate comprising polyglycolic acid, and a coating comprising poly-4-hydroxybutyrate; B.) application of a cell suspension containing isolated and expanded cells to the polymer scaffold, thereby producing a seeded polymer scaffold; C.) placement of the seeded polymer scaffold in a bioreactor and mechanical stimulation by exposure to a pulsatile flux of incremental intensity, thereby forming a tissue-engineered medical device comprising an extracellular matrix; D.) mounting of the tissue-engineered medical device on a conduit stabilizer and incubation under static conditions in a cell culture medium; E.) decellularisation of the tissue-engineered medical device in a washing solution comprising a detergent; F.) nuclease treatment of the tissue-engineered medical device; G.) rinsing of the tissue-engineered medical device.
A tissue treatment device, comprising: a housing; and a shaft coupled to the housing, the shaft including: an inner tubular member defining a fluid inflow conduit; an outer tubular member, wherein the outer tubular member is coaxially disposed about the inner tubular member, and wherein a fluid outflow conduit is defined between the inner tubular member and the outer tubular member the device being characterised by further comprising: an inlet sleeve, where in the inner tubular member is coaxially disposed about and slidingly coupled to the inlet sleeve; and an outlet sleeve, wherein the outlet tubular member is coaxially disposed about and slidingly coupled to the outlet sleeve. a housing; and a shaft coupled to the housing, the shaft including: an inner tubular member defining a fluid inflow conduit; an outer tubular member, wherein the outer tubular member is coaxially an inner tubular member defining a fluid inflow conduit; an outer tubular member, wherein the outer tubular member is coaxially disposed about the inner tubular member, and wherein a fluid outflow conduit is defined between the inner tubular member and the outer tubular member the device being characterised by further comprising: an inlet sleeve, where in the inner tubular member is coaxially disposed about and slidingly coupled to the inlet sleeve; and an outlet sleeve, wherein the outlet tubular member is coaxially disposed about and slidingly coupled to the outlet sleeve. an inlet sleeve, where in the inner tubular member is coaxially disposed about and slidingly coupled to the inlet sleeve; and an outlet sleeve, wherein the outlet tubular member is coaxially disposed about and slidingly coupled to the outlet sleeve.
An immunosuppressive medicament for use in the treatment of a condition in a subject in need of immunosuppressive medicament therapy, wherein the subject has a decreased risk of progressive multifocal leukoencephalopathy due to an infection of the brain by John Cunningham virus, wherein the subject's decreased risk is due to the absence of a genomic variation selected from the group consisting of: chr19:7712287, G>C; chr16:81942175, A>G; chr2:163136505, C>G; chr1:92946625, G>C; chr9:446401, A>G; chr8:61732632, A>G; chr16:81939089, T>C; chr20:62309621, T>C; chr22:36661354, C>T; chr6:52101833, C>T; chr19:7705818, C>T; chr16:81902826, C>T; chr16:81946278, A>G; chr2:98351032, C>G; chr2:98351066, C>T; chr2:98351081, C>T and chr4:103522150, G>A, and wherein chromosome position of the genomic variation is defined with respect to UCSC hg19. wherein the subject has a decreased risk of progressive multifocal leukoencephalopathy due to an infection of the brain by John Cunningham virus, wherein the subject's decreased risk is due to the absence of a genomic variation selected from the group consisting of: chr19:7712287, G>C; chr16:81942175, A>G; chr2:163136505, C>G; chr1:92946625, G>C; chr9:446401, A>G; chr8:61732632, A>G; chr16:81939089, T>C; chr20:62309621, T>C; chr22:36661354, C>T; chr6:52101833, C>T; chr19:7705818, C>T; chr16:81902826, C>T; chr16:81946278, A>G; chr2:98351032, C>G; chr2:98351066, C>T; chr2:98351081, C>T and chr4:103522150, G>A, and wherein chromosome position of the genomic variation is defined with respect to UCSC hg19.
An aerosol-generating material comprising an amorphous solid, the amorphous solid comprising: - 0.1-80 wt% of menthol; - 1-60 wt% of a gelling agent, the gelling agent comprising calcium-crosslinked alginate which comprises α- -linked L-guluronate units; and - 0.1-50 wt% of an aerosol-former material; wherein a molar ratio of Ca 2+ cations to G units is from 0.2:1 to 1:1, preferably wherein the molar ratio of calcium to G units is from 0.3:1 to 0.5:1. - 0.1-80 wt% of menthol; - 1-60 wt% of a gelling agent, the gelling agent comprising calcium-crosslinked alginate which comprises α- -linked L-guluronate units; and - 0.1-50 wt% of an aerosol-former material;
A variable direction of view endoscope, characterized by: an optical system that provides for f-sin(theta) distortion, the optical system including a wide angle lens system (565, 665) and an image transmission system (550, 650), the wide angle lens system (565, 665) having an optical axis that is angularly offset from a longitudinal axis (540, 640) of the endoscope such that the optical axis resides at an angle greater than zero degrees to the longitudinal axis, wherein the wide angle lens system simultaneously gathers light rays from an endoscopic image field (530, 630), the endoscopic image field at least spanning the longitudinal axis and an angle greater than ninety degrees to the longitudinal axis; an imager comprising an imaging surface area that receives only a portion of an endoscopic image transmitted by the wide angle lens system (565, 665) and produces output signals corresponding to the endoscopic image field (530, 630); and image forming circuitry that receives the output signal and produces an image signal, wherein the image transmission system (550, 650) resides in an image path between the wide angle lens system (565, 665) and the imager, the image transmission system (550, 650) having a lens system having f-sin(theta) distortion that distributes the angle of incidence of the light rays gathered from the endoscopic field of view on to the imaging surface area in order to even out the information density across the imaging surface area, and wherein a doublet lens (520, 620) is part of the lens system. an optical system that provides for f-sin(theta) distortion, the optical system including a wide angle lens system (565, 665) and an image transmission system (550, 650), the wide angle lens system (565, 665) having an optical axis that is angularly offset from a longitudinal axis (540, 640) of the endoscope such that the optical axis resides at an angle greater than zero degrees to the longitudinal axis, wherein the wide angle lens system simultaneously gathers light rays from an endoscopic image field (530, 630), the endoscopic image field at least spanning the longitudinal axis and an angle greater than ninety degrees to the longitudinal axis; an imager comprising an imaging surface area that receives only a portion of an endoscopic image transmitted by the wide angle lens system (565, 665) and produces output signals corresponding to the endoscopic image field (530, 630); and image forming circuitry that receives the output signal and produces an image signal, wherein the image transmission system (550, 650) resides in an image path between the wide angle lens system (565, 665) and the imager, the image transmission system (550, 650) having a lens system having f-sin(theta) distortion that distributes the angle of incidence of the light rays gathered from the endoscopic field of view on to the imaging surface area in order to even out the information density across the imaging surface area, and wherein a doublet lens (520, 620) is part of the lens system.
A manufacturing method of a turbine rotor blade, in a manufacturing method of a turbine rotor blade using an Ni-based forged alloy, comprising: a softening process of increasing a γ' phase incoherent with a γ phase that is a matrix phase in the Ni-based forged alloy; a first working process of forming at least two members (1, 2) constituting a rotor blade by using the Ni-based forged alloy after subjected to the softening process; a second working process of forming cooling structural parts in the respective members; and a third working process of joining the members by friction stir welding, wherein the cooling structural parts in the respective members are formed in the second working process such that, after being joined in the third working process, they form together a cooling flow passage in the rotor blade. a softening process of increasing a γ' phase incoherent with a γ phase that is a matrix phase in the Ni-based forged alloy; a first working process of forming at least two members (1, 2) constituting a rotor blade by using the Ni-based forged alloy after subjected to the softening process; a second working process of forming cooling structural parts in the respective members; and a third working process of joining the members by friction stir welding, wherein the cooling structural parts in the respective members are formed in the second working process such that, after being joined in the third working process, they form together a cooling flow passage in the rotor blade.
A power battery system (100, 200), comprising: a number of parallel groups being connected in series, each of the parallel groups comprising a number of single batteries connected in parallel; a number of electrode boards (20, 70), each of the electrode boards being electrically connected between two neighbored parallel groups; wherein each of the electrode boards (20, 70) comprises a number of electrode contact plate (21, 711), a conductive substrate (22, 712), and a number of security devices (50, 78); each electrode contact plate (21, 711) is configured for being electrically connected to two neighbored single batteries of the two neighbored parallel group in series; each of the security devices (50, 78) corresponds to an electrode contact plate (21, 711) and electrically connects an electrode contact plate (21, 711) to the conductive substrate (22, 712); each of the security devices (50, 78) fuses when in one of the single battery occurs short circuit. a number of parallel groups being connected in series, each of the parallel groups comprising a number of single batteries connected in parallel; a number of electrode boards (20, 70), each of the electrode boards being electrically connected between two neighbored parallel groups; wherein each of the electrode boards (20, 70) comprises a number of electrode contact plate (21, 711), a conductive substrate (22, 712), and a number of security devices (50, 78); each electrode contact plate (21, 711) is configured for being electrically connected to two neighbored single batteries of the two neighbored parallel group in series; each of the security devices (50, 78) corresponds to an electrode contact plate (21, 711) and electrically connects an electrode contact plate (21, 711) to the conductive substrate (22, 712); each of the security devices (50, 78) fuses when in one of the single battery occurs short circuit.
Rollo assembly intended for use in an open roof construction for a vehicle, comprising a rotatable winding shaft, a rollo screen of which a rear end can be wound on or off said winding shaft and of which an opposite forward end (5") is provided with an operating beam, and opposite guide channels for in a longitudinal direction guiding opposite side edges of the rollo screen and opposite ends of the operating beam, wherein each of the guide channels is divided into a removable first guide channel part closest to the winding shaft and a second guide channel part (7") further away from the winding shaft, wherein aligning means are provided for, in an assembled position of the rollo assembly, aligning respective ones of the first and second guide channel parts (7',7"), characterized in that the aligning means comprise first and second aligning channels (9,10) having a fixed position relative to the first and second, respectively, guide channel parts (7',7") and aligning pins which can translate therein between a release position in which they each do not engage at least one of said first and second aligning channels and an aligning position in which they engage corresponding first and second aligning channels.
A portable device for disinfecting water by ultrafiltration, comprises: - a filtering assembly with at least one ultrafiltration membrane inside a casing, said at least one ultrafiltration membrane is located in said casing in a position in which it receives the water flow to be filtered by gravity or pressure; - a pump (5, 15), powered with electrical energy, configured for driving a water flow to be filtered to said at least one ultrafiltration membrane; and - an electric supply connection for powering said pump from a power supply, characterized in that: - the power supply is provided by a battery included in a portable communication device, the latter comprising a smartphone or a tablet; - a current consumed by the pump is below 1.2 A, with a supply voltage of between 3 and 24 V; and - the electric supply connection for powering the pump (5, 15) is connected by means of a cable to a USB or micro USB port of the portable communication device. - a filtering assembly with at least one ultrafiltration membrane inside a casing, said at least one ultrafiltration membrane is located in said casing in a position in which it receives the water flow to be filtered by gravity or pressure; - a pump (5, 15), powered with electrical energy, configured for driving a water flow to be filtered to said at least one ultrafiltration membrane; and - an electric supply connection for powering said pump from a power supply, characterized in that: - the power supply is provided by a battery included in a portable communication device, the latter comprising a smartphone or a tablet; - a current consumed by the pump is below 1.2 A, with a supply voltage of between 3 and 24 V; and - the electric supply connection for powering the pump (5, 15) is connected by means of a cable to a USB or micro USB port of the portable communication device. - the power supply is provided by a battery included in a portable communication device, the latter comprising a smartphone or a tablet; - a current consumed by the pump is below 1.2 A, with a supply voltage of between 3 and 24 V; and - the electric supply connection for powering the pump (5, 15) is connected by means of a cable to a USB or micro USB port of the portable communication device.
A window cleaning apparatus comprising first and second cleaning units which are respectively attached on both surfaces of a window using a magnetic force to move together with each other, the window cleaning apparatus being characterized by: a direction detecting sensor provided to at least one of the first and second cleaning units to detect a moving direction of the window cleaning apparatus; a control part controlling a movement of the window cleaning apparatus, based on the moving direction detected by the direction detecting sensor; a collision sensing part sensing a shock to the window cleaning apparatus; and an offset setting part setting a direction offset of the direction detecting sensor when the window cleaning apparatus collides with a frame of the window. a direction detecting sensor provided to at least one of the first and second cleaning units to detect a moving direction of the window cleaning apparatus; a control part controlling a movement of the window cleaning apparatus, based on the moving direction detected by the direction detecting sensor; a collision sensing part sensing a shock to the window cleaning apparatus; and an offset setting part setting a direction offset of the direction detecting sensor when the window cleaning apparatus collides with a frame of the window.
A luminaire controller connectable to a driver circuit of a luminaire, the luminaire controller comprising: a mains power connection (120, 130, 140, 150); a central processing module; and an isolated supply connected to the mains power connection (120, 130, 140, 150) and via a data transfer line to the central processing module, the isolated supply being operable for providing dimming signals to the driver circuit of the luminaire; characterized in that the isolated supply comprises both a digital addressable lighting interface and an analogue interface, and in that the central processing module is operable to configure one of the interfaces (250, 260) for supplying the dimming signals to the driver circuit of the luminaire in accordance with the mode of operation of the luminaire. a mains power connection (120, 130, 140, 150); a central processing module; and an isolated supply connected to the mains power connection (120, 130, 140, 150) and via a data transfer line to the central processing module, the isolated supply being operable for providing dimming signals to the driver circuit of the luminaire; characterized in that the isolated supply comprises both a digital addressable lighting interface and an analogue interface, and in that the central processing module is operable to configure one of the interfaces (250, 260) for supplying the dimming signals to the driver circuit of the luminaire in accordance with the mode of operation of the luminaire.
A method operable with a user equipment, UE, device in association with a call in an Internet Protocol, IP, multimedia subsystem, IMS, network, said call being originated towards a called party, comprising: responsive to receiving an E.164 IP multimedia routing number, IMRN, that is dynamically allocated from a network node, wherein said dynamically allocated IMRN is mapped to at least a portion of call information provided by said UE device with respect to said call, verifying that a call reference number associated with said call has remained valid based on a timer mechanism at said UE device; and upon verification, providing said dynamically allocated IMRN by said UE device to said network node for effectuating call continuity based on a relationship between said dynamically allocated IMRN and said portion of said call information. responsive to receiving an E.164 IP multimedia routing number, IMRN, that is dynamically allocated from a network node, wherein said dynamically allocated IMRN is mapped to at least a portion of call information provided by said UE device with respect to said call, verifying that a call reference number associated with said call has remained valid based on a timer mechanism at said UE device; and upon verification, providing said dynamically allocated IMRN by said UE device to said network node for effectuating call continuity based on a relationship between said dynamically allocated IMRN and said portion of said call information.