mhurhangee/ep-ind-claims huggingface dataset:
An aircraft landing gear comprising a structural main leg, the structural main leg having a substantially circular cross-section and defining a front side for facing upstream in use and a rear side for facing downstream in use, wherein the landing gear further comprises a shaped element (150, 151, 152, 153) attached to an attachment point located on the rear side of the structural main leg, and wherein the shaped element (150, 151, 152, 153) extends rearwards from the structural main leg to provide a combined cross-sectional shape of the structural main leg and shaped element (150, 151, 152, 153) that is elongated in the upstream-downstream direction compared to the structural main leg, characterized in that the shaped element (150, 151, 152, 153) has a maximum width that is no more than the maximum width of the structural main leg. the structural main leg having a substantially circular cross-section and defining a front side for facing upstream in use and a rear side for facing downstream in use, wherein the landing gear further comprises a shaped element (150, 151, 152, 153) attached to an attachment point located on the rear side of the structural main leg, and wherein the shaped element (150, 151, 152, 153) extends rearwards from the structural main leg to provide a combined cross-sectional shape of the structural main leg and shaped element (150, 151, 152, 153) that is elongated in the upstream-downstream direction compared to the structural main leg, characterized in that the shaped element (150, 151, 152, 153) has a maximum width that is no more than the maximum width of the structural main leg.
A method comprising: receiving a plurality of video image frames; constructing a plurality of spatiotemporal volumes by grouping a plurality of image blocks extracted along a trajectory of estimated motion from the video image frames; characterized in that the method further comprises: filtering the spatiotemporal volumes, wherein the filtering models both a random noise component and a fixed pattern noise component in the video image frames to suppress both types of noise, and wherein the filtering is adaptively performed based at least on the estimated motion captured in each spatiotemporal volume to suppress the FPN component; and aggregating the image blocks from the filtered spatiotemporal volumes to generate a plurality of filtered video image frames. receiving a plurality of video image frames; constructing a plurality of spatiotemporal volumes by grouping a plurality of image blocks extracted along a trajectory of estimated motion from the video image frames; characterized in that the method further comprises: filtering the spatiotemporal volumes, wherein the filtering models both a random noise component and a fixed pattern noise component in the video image frames to suppress both types of noise, and wherein the filtering is adaptively performed based at least on the estimated motion captured in each spatiotemporal volume to suppress the FPN component; and aggregating the image blocks from the filtered spatiotemporal volumes to generate a plurality of filtered video image frames.
An oligonucleotide which has one of the following nucleotide sequences: (i) SEQ ID NO: 4, 6, 8, 10, 12, 14, 16, 18 or a complement thereof, or (ii) SEQ ID NO: 5, 7, 9, 11, 13, 15, 17, 19 or a complement thereof. (i) SEQ ID NO: 4, 6, 8, 10, 12, 14, 16, 18 or a complement thereof, or (ii) SEQ ID NO: 5, 7, 9, 11, 13, 15, 17, 19 or a complement thereof.
Decoder for reconstructing an array of information samples representing a spatially sampled information signal, which is subdivided, according to subdivision information, into leaf regions of different sizes by multi-tree subdivision, from a data stream, wherein each leaf region has associated therewith a hierarchy level out of a sequence of hierarchy levels of the multi-tree subdivision, each leaf region has associated therewith coding parameters, the coding parameters are, for each leaf region, represented by a respective set of syntax elements, each syntax element is of a respective syntax element type out of a set of syntax element types, and the decoder comprising an extractor for extracting the subdivision information and inheritance information, signaled within the data stream in addition to the sub-division information, from the data stream, the inheritance information indicating as to whether inheritance is used or not, and if inheritance is indicated to be used, at least one inheritance region of the array of information samples which is composed of a set of the leaf regions and corresponds to an hierarchy level of sequence of hierarchy levels of the multi-tree subdivision, being lower than each of the hierarchy levels with which the set of leaf regions are associated; wherein the decoder is configured to, if inheritance is indicated to be used, extracting an inheritance subset including at least one syntax element of a predetermined syntax element type from the data stream per inheritance region, and using the inheritance subset as a prediction for a corresponding inheritance subset of syntax elements within the set of syntax elements representing the coding parameters associated with the set of leaf regions which the respective at least one inheritance region is composed of. extracting an inheritance subset including at least one syntax element of a predetermined syntax element type from the data stream per inheritance region, and using the inheritance subset as a prediction for a corresponding inheritance subset of syntax elements within the set of syntax elements representing the coding parameters associated with the set of leaf regions which the respective at least one inheritance region is composed of.
A device comprising at least one pressure sensitive key comprising a flexible contact layer spaced apart from a sensor substrate by a spacer layer (406, 408), the flexible contact layer configured to flex in response to an application of pressure to contact the sensor substrate to initiate an input, for a computing device, associated with the pressure sensitive key, the flexible contact layer being configured to at least partially normalize an output resulting from pressure applied at a first location of the flexible contact layer with an output resulting from pressure applied at a second location of the flexible contact layer that has lesser flexibility than the first location, characterized in that, the flexible contact layer is configured to normalize the outputs by including a greater amount of pressure sensitive ink per area at the second location in comparison with the first location.
An induction heating cooker comprising: a radiation heater having a heating element configured to execute radiation heating from above to an object to be heated placed on a cooking container; a roof supporting the radiation heater; a power receiving part having a plurality of power receiving coils configured to receive inductively-fed power; a connecting part configured to electrically connect the power receiving coil of the power receiving part to the heating element of the radiation heater; and two supporting members extending in the same direction from the power receiving part to support the roof, characterized in that the supporting members support the roof so as not to vertically overlap at least the heating element with the power receiving part, and so as to have an opening (14, 15) through which the cooking container can access a heating area of the radiation heater, and that the supporting members have a leg extending from an end of the power receiving part along an edge of the heating area, wherein the leg horizontally opens the heating area surrounded with the leg. a radiation heater having a heating element configured to execute radiation heating from above to an object to be heated placed on a cooking container; a roof supporting the radiation heater; a power receiving part having a plurality of power receiving coils configured to receive inductively-fed power; a connecting part configured to electrically connect the power receiving coil of the power receiving part to the heating element of the radiation heater; and two supporting members extending in the same direction from the power receiving part to support the roof, characterized in that the supporting members support the roof so as not to vertically overlap at least the heating element with the power receiving part, and so as to have an opening (14, 15) through which the cooking container can access a heating area of the radiation heater, and that the supporting members have a leg extending from an end of the power receiving part along an edge of the heating area, wherein the leg horizontally opens the heating area surrounded with the leg.
Electrolysis cell for the electrochemical production of chlorine from aqueous solutions of hydrogen chloride, comprising an anode space formed from an anode, an anode frame and a back wall, the anode frame supporting the anode and the anode space having an inlet and an outlet for the aqueous solution of hydrogen chloride, a cathode space formed from a current collector, a cathode frame and a back wall, the cathode frame supporting the current collector and the cathode space having an inlet and an outlet for the gas, a gas diffusion electrode arranged between anode and current collector (24, 54) and a cation exchange membrane arranged between anode and gas diffusion electrode, characterized in that the gas diffusion electrode is fixed on the current collector (24, 54), the gas diffusion electrode partly gripping around or behind the current collector and an edge of the gas diffusion electrode being connected to at least one strip for fixing on the current collector.
A method to monitor a blow-out preventer of a well submerged under a water surface including at least one pipe from the well to a location above the water surface, comprising: generating a plurality of signals including a signal from a flow meter external to the at least one pipe to measure a flow inside the at least one pipe, and a ram seal confirmation agent signal from an acoustic sensor; collecting and sending the plurality of signals by a BOP corroborator over a dedicated transmission connection to a monitoring computer device at the location above the water surface; and the monitoring computer device enabled to decide based on the received plurality of signals to generate an alert related to an activation of the BOP. generating a plurality of signals including a signal from a flow meter external to the at least one pipe to measure a flow inside the at least one pipe, and a ram seal confirmation agent signal from an acoustic sensor; collecting and sending the plurality of signals by a BOP corroborator over a dedicated transmission connection to a monitoring computer device at the location above the water surface; and the monitoring computer device enabled to decide based on the received plurality of signals to generate an alert related to an activation of the BOP.
A control unit for controlling a saw in a harvester, the saw being driven by a first hydraulic system and the saw being adapted to apply a saw pressure on a sawing area during sawing, wherein the control unit comprises: a sensor for measuring a pump pressure of the first hydraulic system; and wherein the control unit is configured to: in response to the pump pressure being above a first predetermined value, decrease the saw pressure applied by the saw during sawing or in response to the pump pressure being below a second predetermined value, increase the saw pressure applied by the saw during sawing, wherein the saw is operated by an actuator, and the control unit is further adapted to control a pressure in a second hydraulic system driving the actuator, characterised in that the control unit is configured to monitor a first pump pressure in the first hydraulic system during a sawing cycle and to control the actuator during a subsequent sawing cycle based on the first pump pressure. a sensor for measuring a pump pressure of the first hydraulic system; and wherein the control unit is configured to: in response to the pump pressure being above a first predetermined value, decrease the saw pressure applied by the saw during sawing or in response to the pump pressure being below a second predetermined value, increase the saw pressure applied by the saw during sawing, wherein the saw is operated by an actuator, and the control unit is further adapted to control a pressure in a second hydraulic system driving the actuator, characterised in that the control unit is configured to monitor a first pump pressure in the first hydraulic system during a sawing cycle and to control the actuator during a subsequent sawing cycle based on the first pump pressure. in response to the pump pressure being above a first predetermined value, decrease the saw pressure applied by the saw during sawing or in response to the pump pressure being below a second predetermined value, increase the saw pressure applied by the saw during sawing, wherein the saw is operated by an actuator, and the control unit is further adapted to control a pressure in a second hydraulic system driving the actuator, characterised in that the control unit is configured to monitor a first pump pressure in the first hydraulic system during a sawing cycle and to control the actuator during a subsequent sawing cycle based on the first pump pressure.
An evaporator for receiving heat from a heat generator to change at least part of a working fluid from a liquid phase to a gas phase, the evaporator comprising: a housing including an accommodation chamber that accommodates the working fluid; and a heat receiver located on a bottom surface of the housing and thermally connected to the heat generator, wherein the housing includes a porous plate dividing the accommodation chamber into an upper chamber and a lower chamber and including a large number of pores through which the upper and lower chambers (24, 25) communicate with each other, at least one working fluid inlet opening into the upper chamber, a partition dividing a bottom of the lower chamber into liquid retainers, and at least one working fluid outlet opening into the lower chamber and located above the partition. a housing including an accommodation chamber that accommodates the working fluid; and a heat receiver located on a bottom surface of the housing and thermally connected to the heat generator, wherein the housing includes a porous plate dividing the accommodation chamber into an upper chamber and a lower chamber and including a large number of pores through which the upper and lower chambers (24, 25) communicate with each other, at least one working fluid inlet opening into the upper chamber, a partition dividing a bottom of the lower chamber into liquid retainers, and at least one working fluid outlet opening into the lower chamber and located above the partition. a porous plate dividing the accommodation chamber into an upper chamber and a lower chamber and including a large number of pores through which the upper and lower chambers (24, 25) communicate with each other, at least one working fluid inlet opening into the upper chamber, a partition dividing a bottom of the lower chamber into liquid retainers, and at least one working fluid outlet opening into the lower chamber and located above the partition.
A charged droplet sprayer apparatus comprising: a) a sample delivery tube comprising an entrance end and an exit end, for transporting a liquid sample downstream from said entrance end to said exit end; b) a conduit for gas flow, said conduit comprising the annular space between at least a portion of said sample delivery tube proximal to said exit end, and a gas flow tube surrounding and essentially coaxial with said portion, the exit opening of said gas flow tube being proximal to said exit end of said sample delivery tube; c) means for flowing gas through said gas flow conduit; d) means for forming an electric field at said exit end; characterised in that said apparatus further comprises e) a guide tube through which said sample delivery tube extends, said guide tube having a bore that is slightly larger than an outer diameter of the sample delivery tube that allows said sample delivery tube to move freely along the axis of said guide tube while essentially preventing displacement of said sample delivery tube in any direction orthogonal to said guide tube axis; f) a compression fitting (21, 28) attached to an entrance end portion of the sample delivery tube; and g) an adjustment knob in contact with the compression fitting (21, 28), the adjustment knob and the compression fitting being moveable along an axis of the charged droplet sprayer apparatus for adjusting the axial position of said sample delivery tube within said guide tube, whereby the relative axial position of said exit end of said sample delivery tube and said exit opening of said gas flow tube is adjusted. a) a sample delivery tube comprising an entrance end and an exit end, for transporting a liquid sample downstream from said entrance end to said exit end; b) a conduit for gas flow, said conduit comprising the annular space between at least a portion of said sample delivery tube proximal to said exit end, and a gas flow tube surrounding and essentially coaxial with said portion, the exit opening of said gas flow tube being proximal to said exit end of said sample delivery tube; c) means for flowing gas through said gas flow conduit; d) means for forming an electric field at said exit end; e) a guide tube through which said sample delivery tube extends, said guide tube having a bore that is slightly larger than an outer diameter of the sample delivery tube that allows said sample delivery tube to move freely along the axis of said guide tube while essentially preventing displacement of said sample delivery tube in any direction orthogonal to said guide tube axis; f) a compression fitting (21, 28) attached to an entrance end portion of the sample delivery tube; and g) an adjustment knob in contact with the compression fitting (21, 28), the adjustment knob and the compression fitting being moveable along an axis of the charged droplet sprayer apparatus for adjusting the axial position of said sample delivery tube within said guide tube, whereby the relative axial position of said exit end of said sample delivery tube and said exit opening of said gas flow tube is adjusted.
A flexible display, comprising: a flexible display screen and a drive chip, wherein the flexible display screen comprises a flexible substrate including a display region and a bonding region, the back of the flexible substrate is adhered with a supporting film and the drive chip is bonded to the bonding region, characterized in that: the supporting film is adhered to each of the display region and the bonding region, the supporting film in each of the bonding region and the display region has holes formed therein, and a hole ratio of the supporting film in the bonding region is larger than a hole ratio of the supporting film in the display region, wherein the hole ratio is a ratio of a hole area to a non-hole area. the supporting film is adhered to each of the display region and the bonding region, the supporting film in each of the bonding region and the display region has holes formed therein, and a hole ratio of the supporting film in the bonding region is larger than a hole ratio of the supporting film in the display region, wherein the hole ratio is a ratio of a hole area to a non-hole area.
A system for managing wireless communications for a plurality of devices in a high occupancy vehicle, HOV, operating with a wireless network" the system comprising: a network provider that provides the wireless communication through a plurality of base stations in the wireless network; a wireless network concentrator in the high occupancy vehicle for providing the plurality of devices with access to the wireless network and managing the wireless communications of each device in the HOV; a ticketing module having ticketing information regarding expected network usage of each device at different times, said ticketing information input by one of a device user, and a ticketing agent, wherein said ticketing information is the basis for the creation of a formal representation of estimated bandwidth requirements as a function of both place and time relative to the HOV route schedule; and a high occupancy vehicle controller, HOVC,, said HOVC adapted to receive real-time network traffic information from the network provider, and the ticketing information and route information from the ticketing module, and to parse the received information into canonical form to create a global bandwidth usage map across multiple vehicles, routes, and devices within the vehicles; wherein the HOVC provides relevant parts of the global bandwidth usage map to a bandwidth controller of the network provider for allocating bandwidth to the base stations along the HOV route at appropriate times. a network provider that provides the wireless communication through a plurality of base stations in the wireless network; a wireless network concentrator in the high occupancy vehicle for providing the plurality of devices with access to the wireless network and managing the wireless communications of each device in the HOV; a ticketing module having ticketing information regarding expected network usage of each device at different times, said ticketing information input by one of a device user, and a ticketing agent, wherein said ticketing information is the basis for the creation of a formal representation of estimated bandwidth requirements as a function of both place and time relative to the HOV route schedule; and a high occupancy vehicle controller, HOVC,, said HOVC adapted to receive real-time network traffic information from the network provider, and the ticketing information and route information from the ticketing module, and to parse the received information into canonical form to create a global bandwidth usage map across multiple vehicles, routes, and devices within the vehicles; wherein the HOVC provides relevant parts of the global bandwidth usage map to a bandwidth controller of the network provider for allocating bandwidth to the base stations along the HOV route at appropriate times.
An insulated wire, comprising at least one foamed insulating layer composed of a thermosetting resin having bubbles, directly or indirectly on the outer periphery of a conductor, wherein the foamed insulating layer has a difference in a bubble density in the thickness direction thereof to be 3% or more, and wherein an average bubble diameter of the foamed insulating layer is 10 μm or less, wherein the difference in bubble density is obtained by using a scanning electron microscope and using the method described in to and wherein the average bubble diameter is obtained using a scanning electron microscope and using the method described in.