mhurhangee/patent-ind-claim-en huggingface dataset:
A digital photographing apparatus comprising: a first camera configured to capture a wide-angle image comprising a main subject ; a second camera configured to capture a telephoto image zooming in on the main subject; a display configured to display a main image, wherein the main image is one of the wide-angle image and the telephoto image; and a processor configured to: determine whether a moving direction of the main subject is away from or towards the digital photographing apparatus; and determine, based on the moving direction of the main subject, one of the wide-angle image and the telephoto image as the main image to be displayed on the display. a first camera configured to capture a wide-angle image comprising a main subject ; a second camera configured to capture a telephoto image zooming in on the main subject; a display configured to display a main image, wherein the main image is one of the wide-angle image and the telephoto image; and a processor configured to: determine whether a moving direction of the main subject is away from or towards the digital photographing apparatus; and determine, based on the moving direction of the main subject, one of the wide-angle image and the telephoto image as the main image to be displayed on the display. determine whether a moving direction of the main subject is away from or towards the digital photographing apparatus; and determine, based on the moving direction of the main subject, one of the wide-angle image and the telephoto image as the main image to be displayed on the display.
A fibre optic cable comprising; at least one optical fibre , and a force transformer mechanically coupled to the at least one optical fibre; wherein the force transformer is configured to transform transverse forces due to dimension changes of the cable arising from a temperature variation of the cable into longitudinal forces to counteract the longitudinal component of said dimension change over a tuned temperature range; characterised in that the stiffness of the force transformer is configured with respect to a thermal coefficient of expansion of the fibre optic cable , such that a temperature variation within the tuned temperature range results in substantially no change of effective optical path length of the optical fibre within the fibre optic cable. at least one optical fibre , and a force transformer mechanically coupled to the at least one optical fibre; wherein the force transformer is configured to transform transverse forces due to dimension changes of the cable arising from a temperature variation of the cable into longitudinal forces to counteract the longitudinal component of said dimension change over a tuned temperature range; characterised in that the stiffness of the force transformer is configured with respect to a thermal coefficient of expansion of the fibre optic cable , such that a temperature variation within the tuned temperature range results in substantially no change of effective optical path length of the optical fibre within the fibre optic cable.
A system for effecting ultrasound-based protection from ischemia/reperfusion injury (IRI) and/or mitigating in a subject an inflammatory condition, disease or disorder, said system comprising: an ultrasound imaging device for imaging a target tissue region; a transducer for performing a volumetric sweep through the target volume systematically for a selected total time duration and for applying ultrasonic energy to a volume region of interest (ROI) , wherein applying the ultrasonic energy comprises emitting a sequence of ultrasonic pulses from the transducer , the sequence of ultrasound pulses having predetermined frequency, mechanical index, pulse length(s), and pulse spacing(s), while performing a volumetric sweep through the ROI systematically; a storage comprising an image library database wherein said image library database provides an image comparison/similarity algorithm that is used to automatically identify the spleen in image frames from the imaging device and thereby identify an optimal ROI that encompasses it; a processor for identifying the optimal ROI by highlighting a region on one of the image frames as the transducer is swept through a volume; and a controller for selecting a therapeutic ultrasound dose of the transducer comprising a predetermined frequency, mechanical index, pulse length, and pulse spacing, wherein the imaging device and the transducer are the same component. an ultrasound imaging device for imaging a target tissue region; a transducer for performing a volumetric sweep through the target volume systematically for a selected total time duration and for applying ultrasonic energy to a volume region of interest (ROI) , wherein applying the ultrasonic energy comprises emitting a sequence of ultrasonic pulses from the transducer , the sequence of ultrasound pulses having predetermined frequency, mechanical index, pulse length(s), and pulse spacing(s), while performing a volumetric sweep through the ROI systematically; a storage comprising an image library database wherein said image library database provides an image comparison/similarity algorithm that is used to automatically identify the spleen in image frames from the imaging device and thereby identify an optimal ROI that encompasses it; a processor for identifying the optimal ROI by highlighting a region on one of the image frames as the transducer is swept through a volume; and a controller for selecting a therapeutic ultrasound dose of the transducer comprising a predetermined frequency, mechanical index, pulse length, and pulse spacing, wherein the imaging device and the transducer are the same component.
Insulating glass element for a glass facade, at least comprising: 1.1. a stepped glazing having at least two glass panes , 1.2. at least one adapter profile strip which is designed to run at least partially around the insulating glass element and which, in the mounted state, is arranged between an outer glass panel of the stepped glazing and a frame of the glass facade, and 1.3. at least one securing clamp , 1.4. characterized in that the outer glass pane and the at least one adapter profile strip each have at least one groove in the lateral edges in which the at least one securing clamp engages, and 1.5. the at least one adapter profile strip has, on each of the vertical sides of the insulating glass element , at least one channel-shaped, continuous depression , wherein the depressions are designed to extend obliquely, wherein 1.6. the at least one depression extends from the inner side of a cavity, which is formed between the frame and the insulating glass element , to the outer side. 1.1. a stepped glazing having at least two glass panes , 1.2. at least one adapter profile strip which is designed to run at least partially around the insulating glass element and which, in the mounted state, is arranged between an outer glass panel of the stepped glazing and a frame of the glass facade, and 1.3. at least one securing clamp , 1.4. characterized in that the outer glass pane and the at least one adapter profile strip each have at least one groove in the lateral edges in which the at least one securing clamp engages, and 1.5. the at least one adapter profile strip has, on each of the vertical sides of the insulating glass element , at least one channel-shaped, continuous depression , wherein the depressions are designed to extend obliquely, wherein 1.6. the at least one depression extends from the inner side of a cavity, which is formed between the frame and the insulating glass element , to the outer side.
A device for controlling a battery rack relay, the device comprising: a voltage measuring unit adapted to measure battery rack voltages of a plurality of battery racks; a reference voltage selecting unit adapted to perform a simulation which uses the measured battery rack voltages in order to select one of the measured battery rack voltages as reference value; and a control unit adapted to control relays to be attached to a battery rack having the selected reference voltage value and a battery rack in which a difference from the reference voltage value has a voltage value falling below a predetermined first set value, wherein, as a result of the simulation, the reference voltage selecting unit selects that of the measured battery rack voltages as the reference value which effects that a maximum number of relays are attached to corresponding battery racks. a voltage measuring unit adapted to measure battery rack voltages of a plurality of battery racks; a reference voltage selecting unit adapted to perform a simulation which uses the measured battery rack voltages in order to select one of the measured battery rack voltages as reference value; and a control unit adapted to control relays to be attached to a battery rack having the selected reference voltage value and a battery rack in which a difference from the reference voltage value has a voltage value falling below a predetermined first set value, wherein, as a result of the simulation, the reference voltage selecting unit selects that of the measured battery rack voltages as the reference value which effects that a maximum number of relays are attached to corresponding battery racks.
A balloon catheter comprising an inner tube having a first lumen ; an outer tube part provided coaxially with said inner tube and forming a second lumen between said outer tube part and an outer surface of said inner tube (3., 103); and a balloon part , a front end portion of which is fixed to a front end portion of said inner tube and an inside of which communicates with said second lumen , said balloon part has a bulged portion , having an expansion forming mode formed in advance, which is elastically deformable beyond said expansion forming mode by a balloon expansion liquid injected thereinto, said outer tube part has a front side sleeve portion which is extended from a rear end portion of said bulged portion of said balloon part toward a proximal end of said outer tube part, is formed integrally with said balloon part by using the same material as that to be used for said balloon part , and is substantially non-expandable, characterized in that said outer tube part has an outer tube main body having a front end portion fixed to a rear end portion of said front side sleeve portion , said front side sleeve portion has a tilted rear end surface oblique to said central axis of the tubular portion , said outer tube main body has a tilted front end surface oblique to said central axis of said outer tube main body, said outer tube part has a belt-shaped tilted annular fixing portion formed by fixing an overlapped portion of said rear end portion of said front side sleeve portion and said front end portion of the outer tube main body, and said belt-shaped tilted annular fixing portion is oblique to a central axis of said tubular portion .
A method for mixed-mode logic control for a hydraulic braking system , the method comprising: applying a control signal to a control valve and directing hydraulic fluid, with the control valve , to a brake actuator based on a magnitude of the control signal ; measuring a pressure of the hydraulic fluid to the brake actuator ; determining a position of the brake actuator ; determining a position command and a pressure command based on the position of the brake actuator and the pressure, respectively; and adjusting the magnitude of the control signal based on at least one of the position command and the pressure command so as to reposition the brake actuator from a first position to a second position, characterised in that adjusting the magnitude of the control signal is based only on the position command as the brake actuator moves between a running clearance position and a zero torque position. applying a control signal to a control valve and directing hydraulic fluid, with the control valve , to a brake actuator based on a magnitude of the control signal ; measuring a pressure of the hydraulic fluid to the brake actuator ; determining a position of the brake actuator ; determining a position command and a pressure command based on the position of the brake actuator and the pressure, respectively; and adjusting the magnitude of the control signal based on at least one of the position command and the pressure command so as to reposition the brake actuator from a first position to a second position, characterised in that adjusting the magnitude of the control signal is based only on the position command as the brake actuator moves between a running clearance position and a zero torque position.
A portable media device for providing media content to mobile devices outside of a home network , the portable media device , comprising: a processor in communication with a memory , the memory being configured to maintain media content, a transceiver , and a GPS module configured to form a geofence around a first location, the processor configured to: recognize the first location when the media device enters the geofence; recognize a home network provided at the first location, wherein the home network provides wireless capabilities to the first location; instruct the transceiver to transmit a media request to an in-home media recorder connected to the home network and at the first location, wherein the in-home media recorder is a hardware device configured to provide a connection; determine, in response to the media request, whether the in-home media recorder includes new media content not stored within the memory ; receive the new media content from the media recorder in response to the media recorder including media content not stored within the memory ; store the new media content in the memory ; recognize a mobile device by receiving a content request for media content via a wireless network from the mobile device , the wireless network being distinct and separate from the home network and not available at the first location; determine whether the mobile device has permission to access media content stored in the memory ; and transmit the media content in response to the mobile device having permission to access the media content. recognize the first location when the media device enters the geofence; recognize a home network provided at the first location, wherein the home network provides wireless capabilities to the first location; instruct the transceiver to transmit a media request to an in-home media recorder connected to the home network and at the first location, wherein the in-home media recorder is a hardware device configured to provide a connection; determine, in response to the media request, whether the in-home media recorder includes new media content not stored within the memory ; receive the new media content from the media recorder in response to the media recorder including media content not stored within the memory ; store the new media content in the memory ; recognize a mobile device by receiving a content request for media content via a wireless network from the mobile device , the wireless network being distinct and separate from the home network and not available at the first location; determine whether the mobile device has permission to access media content stored in the memory ; and transmit the media content in response to the mobile device having permission to access the media content.
A composite element having the following layer structure: (i) 2 mm to 20 mm of metal, (ii) 10 mm to 100 mm of compact polyurethane formulation, said polyurethane formulation being obtainable by reacting (a) a compound having at least two isocyanate groups with (b) polyether polyol, optionally in the presence of (c) catalyst and/or (d) auxiliaries and/or additives, (e) chain extenders (iii) 2 mm to 20 mm of metal, where the compound a) comprising isocyanate groups has an NCO content of 20% to 50% and the polyether polyol (b) is a mixture comprising at least the constituents of polyether polyol (b1) and polyether polyol (b2), wherein the polyether polyol (b1) has a number-average molecular weight between 3.0 × 10 3 g/mol and 7.0 × 10 3 g/mol and an average functionality of 2.2 to 2.7, the polyether polyol (b2) has a number-average molecular weight between 0.15 × 10 3 g/mol and 2.0 × 10 3 g/mol and an average functionality of 2.5 to 3.5, the polyether polyol (b1) is present in the mixture at 50% by weight to 95% by weight and the polyether polyol (b2) is present in the mixture at 5% by weight to 50% by weight. (i) 2 mm to 20 mm of metal, (ii) 10 mm to 100 mm of compact polyurethane formulation, said polyurethane formulation being obtainable by reacting (a) a compound having at least two isocyanate groups with (b) polyether polyol, optionally in the presence of (c) catalyst and/or (d) auxiliaries and/or additives, (e) chain extenders (a) a compound having at least two isocyanate groups with (b) polyether polyol, optionally in the presence of (c) catalyst and/or (d) auxiliaries and/or additives, (e) chain extenders (iii) 2 mm to 20 mm of metal, where the compound a) comprising isocyanate groups has an NCO content of 20% to 50% and the polyether polyol (b) is a mixture comprising at least the constituents of polyether polyol (b1) and polyether polyol (b2), wherein the polyether polyol (b1) has a number-average molecular weight between 3.0 × 10 3 g/mol and 7.0 × 10 3 g/mol and an average functionality of 2.2 to 2.7, the polyether polyol (b2) has a number-average molecular weight between 0.15 × 10 3 g/mol and 2.0 × 10 3 g/mol and an average functionality of 2.5 to 3.5, the polyether polyol (b1) is present in the mixture at 50% by weight to 95% by weight and the polyether polyol (b2) is present in the mixture at 5% by weight to 50% by weight. where the compound a) comprising isocyanate groups has an NCO content of 20% to 50% and the polyether polyol (b) is a mixture comprising at least the constituents of polyether polyol (b1) and polyether polyol (b2), wherein the polyether polyol (b1) has a number-average molecular weight between 3.0 × 10 3 g/mol and 7.0 × 10 3 g/mol and an average functionality of 2.2 to 2.7, the polyether polyol (b2) has a number-average molecular weight between 0.15 × 10 3 g/mol and 2.0 × 10 3 g/mol and an average functionality of 2.5 to 3.5, the polyether polyol (b1) is present in the mixture at 50% by weight to 95% by weight and the polyether polyol (b2) is present in the mixture at 5% by weight to 50% by weight.
A computing system comprising: a central processing unit (CPU); and memory coupled to the CPU and having stored therein instructions that, when executed by the computing system, cause the computing system to execute operations to generate a radiation treatment plan, the operations comprising: accessing a minimum prescribed dose to be delivered into and across a target; determining a number of beams and directions of the beams, wherein the directions are determined such that the beams do not overlap outside the target; and determining a beam energy for each of the beams; wherein: the beams comprise a beam comprising a plurality of beam segments , wherein the operations further comprise: determining a maximum beam energy for the beam; and determining a beam segment energy for each of the beam segments as a percentage of the maximum beam energy; wherein the number of beams, the directions of the beams, and the beam energy for each of the beams are determined such that the entire target receives the minimum prescribed dose; and wherein the system is configured so that the energy of each of the beam segments is individually defined and independently controlled. a central processing unit (CPU); and memory coupled to the CPU and having stored therein instructions that, when executed by the computing system, cause the computing system to execute operations to generate a radiation treatment plan, the operations comprising: accessing a minimum prescribed dose to be delivered into and across a target; determining a number of beams and directions of the beams, wherein the directions are determined such that the beams do not overlap outside the target; and determining a beam energy for each of the beams; accessing a minimum prescribed dose to be delivered into and across a target; determining a number of beams and directions of the beams, wherein the directions are determined such that the beams do not overlap outside the target; and determining a beam energy for each of the beams; wherein: the beams comprise a beam comprising a plurality of beam segments , wherein the operations further comprise: determining a maximum beam energy for the beam; and determining a beam segment energy for each of the beam segments as a percentage of the maximum beam energy; wherein the number of beams, the directions of the beams, and the beam energy for each of the beams are determined such that the entire target receives the minimum prescribed dose; and wherein the system is configured so that the energy of each of the beam segments is individually defined and independently controlled. determining a maximum beam energy for the beam; and determining a beam segment energy for each of the beam segments as a percentage of the maximum beam energy; wherein the number of beams, the directions of the beams, and the beam energy for each of the beams are determined such that the entire target receives the minimum prescribed dose; and wherein the system is configured so that the energy of each of the beam segments is individually defined and independently controlled.
A device for the simultaneous lyophilisation of a plurality of biological samples intended to be housed within coded containers , which comprises a diffuser block made of a metal alloy with high thermal conductivity comprising a plurality of receptacles to house the coded containers , wherein said diffuser block further comprises: - a perimeter cavity enabling high thermal homogeneity, and - the receptacles have through-holes defining an open bottom , the device being characterized in that it further comprises a transfer lid which comprises a base wherein a plurality of columns forming an extension from the base protrude and the combination of every four columns defines a central housing intended to house the coded containers , wherein the transfer lid comprises at least one tab that exceeds the columns in height, and wherein the diffuser block comprises at least one transfer groove adapted to house the tabs of the transfer lid to enable the transfer lid and diffuser block to be joined in a given unique position. - a perimeter cavity enabling high thermal homogeneity, and - the receptacles have through-holes defining an open bottom , the device being characterized in that it further comprises a transfer lid which comprises a base wherein a plurality of columns forming an extension from the base protrude and the combination of every four columns defines a central housing intended to house the coded containers , wherein the transfer lid comprises at least one tab that exceeds the columns in height, and wherein the diffuser block comprises at least one transfer groove adapted to house the tabs of the transfer lid to enable the transfer lid and diffuser block to be joined in a given unique position.
A gripping bar for the body of a passenger transport vehicle , in particular a rail vehicle, the gripping bar comprising a body of elongate shape defining a longitudinal axis (A24) of the gripping bar, with a central portion situated between two end portions , wherein the body comprises a wall having an outer surface and delimiting a ventilation duct , the ventilation duct opening out from each of the end portions through a respective vent , wherein the gripping bar is intended to be disposed within a passenger compartment (V6) of the vehicle body, the two end portions being intended to be secured to the body respectively in the vicinity of a ceiling and in the vicinity of a floor of the body, the outer surface of the body being configured so as to be gripped by the passengers, the gripping bar being characterised in that it comprises a motorised ventilation member , which is housed in the ventilation duct at the central portion and which is configured to suck in air at one of the two vents and blow this air out the other vent .