mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing apparatus comprising: an output unit that is configured to output to a movable object information indicating an action to be performed by the movable object ; and a processor that is configured to determine a first action of the movable object based on a state of a target, the state being sensed in captured imagery of a region around the movable object ; cause the output unit to output information indicating the first action; and determine a second action of the movable object based on a second state of the target, the second state being sensed in imagery of the region around the movable object that is captured after the first action of the movable object ; characterized in that the processor is further configured to cause the output unit to output information indicating the second action at a time depending on a speed of a predetermined motion that the target makes before the first action is determined or at a time depending on a speed of a predetermined motion that the target makes after the first action of the movable object . an output unit that is configured to output to a movable object information indicating an action to be performed by the movable object ; and a processor that is configured to determine a first action of the movable object based on a state of a target, the state being sensed in captured imagery of a region around the movable object ; cause the output unit to output information indicating the first action; and determine a second action of the movable object based on a second state of the target, the second state being sensed in imagery of the region around the movable object that is captured after the first action of the movable object ; determine a first action of the movable object based on a state of a target, the state being sensed in captured imagery of a region around the movable object ; cause the output unit to output information indicating the first action; and determine a second action of the movable object based on a second state of the target, the second state being sensed in imagery of the region around the movable object that is captured after the first action of the movable object ; characterized in that the processor is further configured to cause the output unit to output information indicating the second action at a time depending on a speed of a predetermined motion that the target makes before the first action is determined or at a time depending on a speed of a predetermined motion that the target makes after the first action of the movable object .
An oven comprising: a case ; a cooking compartment provided inside the case ; a heater configured to heat the cooking compartment ; a fan disposed in the cooking compartment and configured to circulate air inside the cooking compartment ; and a cover member disposed in the cooking compartment to divide the cooking compartment into a cooking space in which cooking is performed and an air flow path in which the fan is disposed, wherein the cover member includes a first cover portion to guide air in the cooking space to a collision area on a surface of the cooking compartment , and a second cover portion having a surface facing an upper wall of the cooking compartment provided to guide the air of the air flow path to the cooking space and having an opposite surface on which the heater is disposed, and a plurality of bumps are formed on the opposite surface of the second cover portion , and the heater is disposed on a concave portion of the plurality of bumps and an outlet through which the air in the air flow path is discharged is disposed on a convex portion of the plurality of bumps. a case ; a cooking compartment provided inside the case ; a heater configured to heat the cooking compartment ; a fan disposed in the cooking compartment and configured to circulate air inside the cooking compartment ; and a cover member disposed in the cooking compartment to divide the cooking compartment into a cooking space in which cooking is performed and an air flow path in which the fan is disposed, wherein the cover member includes a first cover portion to guide air in the cooking space to a collision area on a surface of the cooking compartment , and a second cover portion having a surface facing an upper wall of the cooking compartment provided to guide the air of the air flow path to the cooking space and having an opposite surface on which the heater is disposed, and a plurality of bumps are formed on the opposite surface of the second cover portion , and the heater is disposed on a concave portion of the plurality of bumps and an outlet through which the air in the air flow path is discharged is disposed on a convex portion of the plurality of bumps.
A graphite sheet having a thickness in a range of 2.1 μm or less and 20 nm or more, an area of 9 mm 2 or more, and a carrier mobility along the a-b plane direction at 25°C of 8000 cm 2 /V·sec or more.
A resin composition, comprising: (A) a modified elastomer having an acid anhydride group; (B) a solvent-soluble polyimide resin; and (C) an epoxy resin, wherein the (B) is a polyimide resin obtained by causing a tetracarboxylic acid component and dimer diamine to react. (A) a modified elastomer having an acid anhydride group; (B) a solvent-soluble polyimide resin; and (C) an epoxy resin, wherein the (B) is a polyimide resin obtained by causing a tetracarboxylic acid component and dimer diamine to react.
A fitting for windows, doors or the like, comprising a gear which has an input element rotatably supported about a first axis of rotation (R1) to switch the fitting and a displaceable first output element coupled or couplable to a first connecting rod, wherein the fitting comprises a second output element of the gear which is coupled or couplable to a second connecting rod, wherein the first and second output elements are coupled to one another via a device for a reversal of direction, wherein the gear has two drive rails which are displaceable in opposite senses and which form the first and second output elements ; wherein a displaceable transmission element which can be driven to make a displacement movement by the rotation of the input element is provided to convert a rotational movement of the input element into a displacement movement of the first output element ; and wherein a first intermediate toothed wheel is rotatably supported in or at the displaceable transmission element and meshes with a first gear rack section fixed to the housing and with a second gear rack section provided at the first output element , characterized in that the first drive rail is provided with a cutout to enable a lateral sliding past one another of the drive rails .
A process for the preparation of avibactam sodium in polymorphic form C having a powder X-ray diffractogram comprising reflections at 2-Theta angles of (6.5 ± 0.2)°, (14.4 ± 0.2)°, (15.5 ± 0.2)°, (18.0 ± 0.2)° and (19.3 ± 0.2)°, when measured at a temperature in the range of from 20 to 30°C with Cu-Kalpha 1,2 radiation having a wavelength of 0.15419 nm, comprising the steps (i) providing a mixture comprising avibactam or a salt thereof and a solvent, wherein the mixture has a water content of less than 2 % by weight based on the weight of the mixture, (ii) increasing the temperature of the mixture provided in (i) to at least 55°C and increasing the pressure relative to step (i), adding a sodium source to the mixture in step (i) and/or (ii) if the form of avibactam provided in (i) is not avibactam sodium, thereby obtaining avibactam sodium in polymorphic form C, wherein the solvent is selected from the group consisting of a C 4 -C 6 alcohol, a C 4 -C 6 ester, a C 4 -C 6 cyclic ether, a linear or cyclic ketone, a carbonate, and mixtures thereof.. (i) providing a mixture comprising avibactam or a salt thereof and a solvent, wherein the mixture has a water content of less than 2 % by weight based on the weight of the mixture, (ii) increasing the temperature of the mixture provided in (i) to at least 55°C and increasing the pressure relative to step (i),
A vacuum pumping line plasma source comprising: a body defining a generally cylindrical interior volume extending along a central longitudinal axis (A), the body having an input port for coupling to an input pumping line, an output port for coupling to an output pumping line, and an interior surface disposed about the generally cylindrical interior volume; a supply electrode disposed adjacent to a return electrode ; a barrier dielectric member , and a dielectric barrier discharge structure formed from the supply electrode, the return electrode, and the barrier dielectric member, wherein at least a portion of the dielectric barrier discharge structure is disposed in the body or on the interior surface of the body, and the dielectric barrier discharge structure is adapted to generate a plasma in the generally cylindrical interior volume; characterised in that at least one of the supply electrode or the return electrode is embedded in the barrier dielectric member . a body defining a generally cylindrical interior volume extending along a central longitudinal axis (A), the body having an input port for coupling to an input pumping line, an output port for coupling to an output pumping line, and an interior surface disposed about the generally cylindrical interior volume; a supply electrode disposed adjacent to a return electrode ; a barrier dielectric member , and a dielectric barrier discharge structure formed from the supply electrode, the return electrode, and the barrier dielectric member, wherein at least a portion of the dielectric barrier discharge structure is disposed in the body or on the interior surface of the body, and the dielectric barrier discharge structure is adapted to generate a plasma in the generally cylindrical interior volume; characterised in that at least one of the supply electrode or the return electrode is embedded in the barrier dielectric member .
A bundle of hollow fiber membranes enveloped in a plastic film sealed by a magnetic closure .
A railway vehicle comprising a car body , a floor , one or more boarding areas each associated with at least one door , and a floor supporting assembly which is operatively connected to and support said floor , said floor supporting assembly being arranged to reversibly adjust the height of said floor at least at said one or more boarding areas from at least a first level (H1) to a second level (H2), characterized in that said floor supporting assembly comprises at least one multifunctional profile which is positioned at a corresponding inner side of the car body and extends, inside the car body , from a side of and above the floor , said multifunctional profile comprising one or more fastening points for attaching therewith one or more corresponding internal functional components of the railway vehicle , and wherein said multifunctional profile is mechanically connected to an associated part of and supports said floor .
A double-suction centrifugal fan, comprising: an electric motor having a shaft ; a first impeller provided with a first inlet port opened toward the electric motor , and coupled to the shaft ; a second impeller provided with a second inlet port opened opposite to the electric motor , and coupled to the shaft at a position farther from the electric motor than the first impeller ; a first bell mouth provided at the first inlet port of the first impeller ; and a second bell mouth provided at the second inlet port of the second impeller , characterised in that the first impeller includes a first shroud provided with the first inlet port and overlapping with the first bell mouth over an entire periphery thereof, the first shroud has an inner diameter decreasing toward the first inlet port , the second impeller includes a second shroud provided with the second inlet port and overlapping with the second bell mouth over an entire periphery thereof, the second shroud has an inner diameter decreasing toward the second inlet port , and an axial length L2 of the second bell mouth is greater than an axial length L1 of the first bell mouth . an electric motor having a shaft ; a first impeller provided with a first inlet port opened toward the electric motor , and coupled to the shaft ; a second impeller provided with a second inlet port opened opposite to the electric motor , and coupled to the shaft at a position farther from the electric motor than the first impeller ; a first bell mouth provided at the first inlet port of the first impeller ; and a second bell mouth provided at the second inlet port of the second impeller , characterised in that the first impeller includes a first shroud provided with the first inlet port and overlapping with the first bell mouth over an entire periphery thereof, the first shroud has an inner diameter decreasing toward the first inlet port , the second impeller includes a second shroud provided with the second inlet port and overlapping with the second bell mouth over an entire periphery thereof, the second shroud has an inner diameter decreasing toward the second inlet port , and an axial length L2 of the second bell mouth is greater than an axial length L1 of the first bell mouth .
A method of initiating a handover of a User Equipment, UE, from a first type of Radio Access Technology, RAT, to a second type of RAT, wherein said UE is attached to a Core Network, CN, via one of a plurality of Access Nodes, ANs, comprised by a Radio Access Network, RAN, utilizing said first type of RAT, wherein said method is performed by the UE and comprises the steps of: - transmitting to said one AN, measurement data relating to qualities of broadcast channels utilized by access nodes in said RAN and measured by said UE; - receiving an indicator from said AN, wherein said indicator informs said UE that there is a risk of losing connectivity between said UE and said RAN, said risk of losing connectivity due to that said UE is requesting service that said RAN is not able to serve and said RAN cannot initiate a handover of said UE to another AN; - initiating , triggered by said received indicator, a handover in order to access a CN via said second type of RAT. - transmitting to said one AN, measurement data relating to qualities of broadcast channels utilized by access nodes in said RAN and measured by said UE; - receiving an indicator from said AN, wherein said indicator informs said UE that there is a risk of losing connectivity between said UE and said RAN, said risk of losing connectivity due to that said UE is requesting service that said RAN is not able to serve and said RAN cannot initiate a handover of said UE to another AN; - initiating , triggered by said received indicator, a handover in order to access a CN via said second type of RAT.
A fan , in particular for an aircraft cooling unit, comprising: - a wheel comprising a hub and an annular row of blades , - a shaft assembly for driving the wheel around an axis (A), and - fusible means for connecting the hub of the wheel to the shaft assembly, these fusible connecting means comprising a first fixing sleeve through which the shaft assembly passes and surrounded by said hub, and fusible safety elements which extend parallel to said axis (A) and are configured to break and to disengage the wheel from the shaft assembly in rotation when a driving torque of the wheel transmitted by said shaft assembly exceeds a certain threshold, characterised in that said connecting means comprise a second wearing sleeve which is interposed between said first sleeve and said hub and through which said fusible elements pass, said second sleeve being made of a material which is different from that of the first sleeve and subject to wear by friction and/or by heating if the shaft assembly continues to rotate following the aforementioned disengagement. - a wheel comprising a hub and an annular row of blades , - a shaft assembly for driving the wheel around an axis (A), and - fusible means for connecting the hub of the wheel to the shaft assembly, these fusible connecting means comprising a first fixing sleeve through which the shaft assembly passes and surrounded by said hub, and fusible safety elements which extend parallel to said axis (A) and are configured to break and to disengage the wheel from the shaft assembly in rotation when a driving torque of the wheel transmitted by said shaft assembly exceeds a certain threshold,
A delay measurement method for measuring delays in an IP network system comprising an over the top, OTT, server , and at least two internet gateway, IGW, ports, whereby the OTT server and the IGWs are not clock-synchronized and do not support a same measurement protocol, wherein the method comprises the following steps carried out by a performance analysis device provided in the network system: determining , a first delay of a first path, wherein the first path successively passes through a first Internet gateway, IGW, port , an over the top, OTT, server , and a second IGW port ; obtaining , a first two-way delay of a first two-way path, wherein the first two-way path successively passes through the first IGW port , the OTT server , a third IGW port , a provider/provider edge device , and the first IGW port , and the second IGW port is different from the third IGW port ; obtaining , a first one-way delay from the third IGW port to the provider/provider edge device; obtaining , a second one-way delay from the provider/provider edge device to the first IGW port ; determining , a second delay, wherein the second delay is obtained by subtracting the first one-way delay and the second one-way delay from the first two-way delay; and comparing , the first delay with the second delay, so as to determine a delay relationship between a one-way delay of a path from the OTT server to the second IGW port and a one-way delay of a path from the OTT server to the third IGW port in order to determine the path whose one-way delay is optimal. determining , a first delay of a first path, wherein the first path successively passes through a first Internet gateway, IGW, port , an over the top, OTT, server , and a second IGW port ; obtaining , a first two-way delay of a first two-way path, wherein the first two-way path successively passes through the first IGW port , the OTT server , a third IGW port , a provider/provider edge device , and the first IGW port , and the second IGW port is different from the third IGW port ; obtaining , a first one-way delay from the third IGW port to the provider/provider edge device; obtaining , a second one-way delay from the provider/provider edge device to the first IGW port ; determining , a second delay, wherein the second delay is obtained by subtracting the first one-way delay and the second one-way delay from the first two-way delay; and comparing , the first delay with the second delay, so as to determine a delay relationship between a one-way delay of a path from the OTT server to the second IGW port and a one-way delay of a path from the OTT server to the third IGW port in order to determine the path whose one-way delay is optimal.
A system for performing image motion compensation, the system comprising: a light source configured to provide multiplexed illumination to an object in a plurality of color channels, wherein the multiplexed illumination is provided such that at least one of the plurality of channels is used at a time; an imaging unit configured to capture a first image and a second image of the object in the plurality of color channels, wherein the first image is captured at a first point of time during which the illumination is provided in at least a first color channel, and the second image is captured at a second point of time during which the illumination is provided in at least the first color channel; and a control unit configured to: determine an estimated motion of pixels between the first image and the second image in the first color channel; and generate a first motion compensated image by extrapolating the estimated motion of pixels between the first image and the second image to at least another one of the plurality of color channels. a light source configured to provide multiplexed illumination to an object in a plurality of color channels, wherein the multiplexed illumination is provided such that at least one of the plurality of channels is used at a time; an imaging unit configured to capture a first image and a second image of the object in the plurality of color channels, wherein the first image is captured at a first point of time during which the illumination is provided in at least a first color channel, and the second image is captured at a second point of time during which the illumination is provided in at least the first color channel; and a control unit configured to: determine an estimated motion of pixels between the first image and the second image in the first color channel; and generate a first motion compensated image by extrapolating the estimated motion of pixels between the first image and the second image to at least another one of the plurality of color channels. determine an estimated motion of pixels between the first image and the second image in the first color channel; and generate a first motion compensated image by extrapolating the estimated motion of pixels between the first image and the second image to at least another one of the plurality of color channels.
A fuel cell comprising: a power generating body including an electrolyte membrane, catalyst layers formed adjacent to the opposite surfaces of the electrolyte membrane, and gas diffusion layers; a resin frame placed around the power generating body ; and a pair of separators laminated on the resin frame so as to sandwich the power generating body and the resin frame , wherein the resin frame has a resin-frame-side manifold in which reaction gas flows in a direction passing through the resin frame , an opening that holds the power generating body , and a gas introduction channel formed through the resin frame between the resin-frame-side manifold and the opening , the pair of separators has a separator-side manifold through which the reaction gas flows, the separator-side manifold being provided at a position corresponding to the resin-frame-side manifold as viewed in a lamination direction, and the gas introduction channel has a gas introduction part that extends into the separator-side manifold , when viewed in the lamination direction, characterized in that the opening area of the resin-frame-side manifold is smaller than the opening area of the separator-side manifold . a power generating body including an electrolyte membrane, catalyst layers formed adjacent to the opposite surfaces of the electrolyte membrane, and gas diffusion layers; a resin frame placed around the power generating body ; and a pair of separators laminated on the resin frame so as to sandwich the power generating body and the resin frame , wherein the resin frame has a resin-frame-side manifold in which reaction gas flows in a direction passing through the resin frame , an opening that holds the power generating body , and a gas introduction channel formed through the resin frame between the resin-frame-side manifold and the opening , the pair of separators has a separator-side manifold through which the reaction gas flows, the separator-side manifold being provided at a position corresponding to the resin-frame-side manifold as viewed in a lamination direction, and the gas introduction channel has a gas introduction part that extends into the separator-side manifold , when viewed in the lamination direction, characterized in that the opening area of the resin-frame-side manifold is smaller than the opening area of the separator-side manifold .