mhurhangee/ep-ind-claims huggingface dataset:
A method of decoding video data in a merge mode, wherein, in merge mode, motion information of one of merge candidate blocks is set to motion information of a current prediction unit, comprising: constructing a merge list using available spatial and temporal merge candidate blocks; setting motion information of a merge candidate block on the merge list corresponding to a merge index as motion information of the current prediction unit; generating a prediction block of the current prediction unit using the motion information; and generating a quantized block by inverse-scanning quantized coefficient components, generating a transformed block by inverse-quantizing the quantized block using a quantization parameter and generating a residual block by inverse-transforming the transformed block; wherein when the current prediction unit is a second prediction unit among two prediction units partitioned from a current coding unit by asymmetric partitioning, a first prediction unit partitioned by the asymmetric partitioning is not to be a merge candidate block, and wherein a spatial merge candidate block is a left block, an above block, an above-right block, a left-below block or an above-left block of the current prediction unit, and the above-left block is set as a merge candidate block when one or more of the left block, the above block, the above-right block, the left-below block are unavailable. constructing a merge list using available spatial and temporal merge candidate blocks; setting motion information of a merge candidate block on the merge list corresponding to a merge index as motion information of the current prediction unit; generating a prediction block of the current prediction unit using the motion information; and generating a quantized block by inverse-scanning quantized coefficient components, generating a transformed block by inverse-quantizing the quantized block using a quantization parameter and generating a residual block by inverse-transforming the transformed block; wherein when the current prediction unit is a second prediction unit among two prediction units partitioned from a current coding unit by asymmetric partitioning, a first prediction unit partitioned by the asymmetric partitioning is not to be a merge candidate block, and wherein a spatial merge candidate block is a left block, an above block, an above-right block, a left-below block or an above-left block of the current prediction unit, and the above-left block is set as a merge candidate block when one or more of the left block, the above block, the above-right block, the left-below block are unavailable.
An aerosol-generator for an aerosol-generating device, the aerosol-generator comprising: a plurality of surface acoustic wave atomisers (202, 203), each surface acoustic wave atomiser (202, 203) comprising: a substrate (206, 211) comprising an active surface (208, 213); and at least one transducer (207, 212) positioned on the active surface (208, 213) of the substrate (206, 211) for generating surface acoustic waves on the active surface (208, 213) of the substrate (206, 211); an atomisation region defined between the substrates (206, 211) of the plurality of surface acoustic wave atomisers (202, 203); and a supply element arranged to supply a liquid aerosol-forming substrate to the atomisation region. a plurality of surface acoustic wave atomisers (202, 203), each surface acoustic wave atomiser (202, 203) comprising: a substrate (206, 211) comprising an active surface (208, 213); and at least one transducer (207, 212) positioned on the active surface (208, 213) of the substrate (206, 211) for generating surface acoustic waves on the active surface (208, 213) of the substrate (206, 211); a substrate (206, 211) comprising an active surface (208, 213); and at least one transducer (207, 212) positioned on the active surface (208, 213) of the substrate (206, 211) for generating surface acoustic waves on the active surface (208, 213) of the substrate (206, 211); an atomisation region defined between the substrates (206, 211) of the plurality of surface acoustic wave atomisers (202, 203); and a supply element arranged to supply a liquid aerosol-forming substrate to the atomisation region.
Access and reading station consisting of a corridor which is bounded by a floor area, at least two longitudinal side walls (26, 27) and optionally a ceiling area, bends at least once in its course and has an entrance and an exit opening into a warehouse, wherein at least one reader (14, 16) for RFID transponders is arranged in or on the corridor and generates an electromagnetic reading field in the interior of the corridor, also consisting of a door portal having a closable door for the controlled blocking or enabling of passage through the corridor and identity card readers (32, 36, 42) for detecting users and authorizations for passing through the door, characterized in that the door portal having the closable door is the only barrier of the corridor and is arranged at the entrance or inside the corridor, while the exit of the corridor is open, in that a second portal, but without a door, is arranged at the exit of the corridor and a reading antenna of an RFID reader (14, 16), which reading antenna is directed into the interior of the corridor, is arranged in or on a bridge of the second portal, and access lights which are directed to that side of the exit which faces away from the corridor are arranged, and proximity sensors which are directed to that side of the exit which faces the corridor are arranged and can be used to switch on the RFID reader (14, 16) for detecting objects which have been removed and have already been assigned to a user by a separate reader in the warehouse, and in that the closable doors in the door portal remain blocked upon verifying and identifying objects which have not been registered or have not been correctly registered.
A capacitive sensor system resistant to electromagnetic interference, the capacitive sensor system comprising: a capacitive core including a first variable capacitor, a second variable capacitor, a first core output coupled to the first variable capacitor, a second core output coupled to the second variable capacitor, and a common node coupling the first variable capacitor and the second variable capacitor; a differential amplifier including an inverting input and a non-inverting input; a first capacitive path between the first core output and the inputs of the differential amplifier; a second capacitive path between the second core output and the inputs of the differential amplifier; a chopping system having a high state and a low state, the chopping system coupling the first and second core outputs to the inputs of the differential amplifier, wherein when the chopping system is in the high state, a positive step voltage is applied to the common node of the capacitive core, and the chopping system couples the first core output to the inverting input of the differential amplifier and couples the second core output to the non-inverting input of the differential amplifier; and when the chopping system is in the low state, a negative step voltage is applied to the common node of the capacitive core, and the chopping system couples the first core output to the non-inverting input of the differential amplifier and couples the second core output to the inverting input of the differential amplifier. a capacitive core including a first variable capacitor, a second variable capacitor, a first core output coupled to the first variable capacitor, a second core output coupled to the second variable capacitor, and a common node coupling the first variable capacitor and the second variable capacitor; a differential amplifier including an inverting input and a non-inverting input; a first capacitive path between the first core output and the inputs of the differential amplifier; a second capacitive path between the second core output and the inputs of the differential amplifier; a chopping system having a high state and a low state, the chopping system coupling the first and second core outputs to the inputs of the differential amplifier, wherein when the chopping system is in the high state, a positive step voltage is applied to the common node of the capacitive core, and the chopping system couples the first core output to the inverting input of the differential amplifier and couples the second core output to the non-inverting input of the differential amplifier; and when the chopping system is in the low state, a negative step voltage is applied to the common node of the capacitive core, and the chopping system couples the first core output to the non-inverting input of the differential amplifier and couples the second core output to the inverting input of the differential amplifier.
A seed distribution tower for an air seeder comprising: an upright conduit for conveying a combination of seeds and air in a primary stream toward an upper end of the conduit, a distribution head at said upper end of the conduit for receiving the primary stream from the conduit and splitting the primary stream into a plurality of secondary streams that issue from a plurality of discharge outlets on the distribution head, and electrical hardware below said distribution head and connected with a component at said head, characterized in that a protective housing surrounds said conduit below said head and encloses said hardware. an upright conduit for conveying a combination of seeds and air in a primary stream toward an upper end of the conduit, a distribution head at said upper end of the conduit for receiving the primary stream from the conduit and splitting the primary stream into a plurality of secondary streams that issue from a plurality of discharge outlets on the distribution head, and electrical hardware below said distribution head and connected with a component at said head, characterized in that a protective housing surrounds said conduit below said head and encloses said hardware.
A radio communication apparatus comprising: a receiver, which, in operation, receives control information associated with a number of bits; and circuitry (101, 102, 103), which, in operation: generates a bit sequence by forcibly setting each of the number of bits out of a plurality of bits to a 1, the number of bits being determined based on the control information the plurality of bits forming a modulation symbol in the bit sequence; and modulates the bit sequence by mapping the plurality of bits on a single modulation mapper, wherein said circuity, in operation, forcibly sets each of the number of bits to the 1 such that the modulation symbol is mapped on a constellation of M-ary number which is lower than M-ary number of the single modulation mapper. a receiver, which, in operation, receives control information associated with a number of bits; and circuitry (101, 102, 103), which, in operation: generates a bit sequence by forcibly setting each of the number of bits out of a plurality of bits to a 1, the number of bits being determined based on the control information the plurality of bits forming a modulation symbol in the bit sequence; and modulates the bit sequence by mapping the plurality of bits on a single modulation mapper, generates a bit sequence by forcibly setting each of the number of bits out of a plurality of bits to a 1, the number of bits being determined based on the control information the plurality of bits forming a modulation symbol in the bit sequence; and modulates the bit sequence by mapping the plurality of bits on a single modulation mapper, wherein said circuity, in operation, forcibly sets each of the number of bits to the 1 such that the modulation symbol is mapped on a constellation of M-ary number which is lower than M-ary number of the single modulation mapper.
A computer-implemented method of providing a device, wherein the device is arranged for controlling airflow distribution in a lung of a respiratory system of a patient, the method comprising: - generating a first computer model of airflow through at least part of the respiratory system; - identifying, based on the first computer model, first diseased and healthy regions of the lung; - selecting, based on the first computer model and the first diseased and healthy regions of the lung, an airway passage for treatment; and - providing the device suited for placement in said selected airway passage for controlling the air flow distribution in the selected airway passage. - generating a first computer model of airflow through at least part of the respiratory system; - identifying, based on the first computer model, first diseased and healthy regions of the lung; - selecting, based on the first computer model and the first diseased and healthy regions of the lung, an airway passage for treatment; and - providing the device suited for placement in said selected airway passage for controlling the air flow distribution in the selected airway passage.
A footwear article comprising a generally elongate sole for engagement with and support of the foot of a person, said sole having an upper surface, a lower surface, a first portion being for direct contact and interaction with at least a portion of the underside of the foot of the person and being formed from a first polymeric material having a first density, and a second portion forming substantially the entire lower surface and being for direct contact and interaction with a surface upon which a person walks and being formed from a second polymeric material having a second density, and a foot engagement means for securing the footwear article to the foot of a person and configured so as to extend over a portion of the upper side of the foot of the person; characterised in that the first polymeric material is provided in a gel form and the second polymeric material is provided in an expanded form whereby the first density is greater than the second density; the first polymeric material and the second polymeric material are selected and the first portion and the second portion are sized and arranged such that the sole is substantially flexible and elastic so as to allow for substantial flexion of the sole longitudinally and return, when in use and during ambulation of the person, said first portion extends at least to the upper surface of the sole, and the first polymeric material and the second polymeric material are selected and the first portion and the second portion are sized and arranged such that said first portion provides for dampening of load imparted to the foot of the person upon contact with a surface.
A method for inband telemetry for a virtual transponder which is a transponder partitioned into multiple transponders, the method comprising: transmitting, by a payload antenna (280, 2080, 480, 680, 6080, 880, 8080) on a vehicle (210, 2010, 410, 610, 6010, 810, 8010), a hosted payload signal which is a signal provided by at least a portion of the payload used by at least one hosted user to a hosted receiving antenna used by the at least one hosted user (290, 2090, 490, 690, 6090, 890, 8090); and transmitting, by the payload antenna, a hosted telemetry signal which is a telemetry signal related to the configuration of at least one portion of the payload used by the at least one hosted user to the hosted receiving antenna, characterized in that the hosted telemetry signal and the hosted payload signal are transmitted on a same hosted frequency band. transmitting, by a payload antenna (280, 2080, 480, 680, 6080, 880, 8080) on a vehicle (210, 2010, 410, 610, 6010, 810, 8010), a hosted payload signal which is a signal provided by at least a portion of the payload used by at least one hosted user to a hosted receiving antenna used by the at least one hosted user (290, 2090, 490, 690, 6090, 890, 8090); and transmitting, by the payload antenna, a hosted telemetry signal which is a telemetry signal related to the configuration of at least one portion of the payload used by the at least one hosted user to the hosted receiving antenna, characterized in that the hosted telemetry signal and the hosted payload signal are transmitted on a same hosted frequency band.
A method for manufacturing a transistor comprising a control electrode and a channel self-aligned to said control electrode, the method comprising: - providing a substrate, - providing a layer of conductive material on said substrate, - forming, from said layer of conductive material, a control electrode having a final pattern by: - providing a first mask, - etching the layer of conductive material using said first mask, and thereafter - providing a second mask, wherein the etched layer of conductive material and an opening in said second mask show an overlap, - etching the layer of conductive material using said second mask, and thereafter - implanting dopant elements in the substrate for forming the channel by using said second mask, wherein the final pattern of the control electrode is defined by the first mask with the subtraction of the overlap. - providing a substrate, - providing a layer of conductive material on said substrate, - forming, from said layer of conductive material, a control electrode having a final pattern by: - providing a first mask, - etching the layer of conductive material using said first mask, and thereafter - providing a second mask, - providing a first mask, - etching the layer of conductive material using said first mask, and thereafter - providing a second mask, - etching the layer of conductive material using said second mask, and thereafter - implanting dopant elements in the substrate for forming the channel by using said second mask,
Premix burner for a gas turbine in the form of a double cone burner comprising two part cone shells (11, 12) arranged nested inside each other which between them form air inlet channels (18, 19), through which combustion air from the outside flows into a conical inner chamber of the premix burner, wherein at the outer walls of the air inlet channels (18, 19), linear hole rows (R2, R3, R4) of injection openings are arranged running transversely to the flow direction of the combustion air, through which a gaseous fuel is injected into the combustion air passing transversely by, characterised in that the injection openings each have a diameter ratio of the diameter of the injection opening to the effective outlet diameter of the premix burner which lies between 0.011 and 0.015, or is greater than 0.015 and less than 0.017.
Method for manufacturing a braze joint gap for connecting a first part to a second part via brazing or soldering, comprising the steps of: - adding first microstructural elements (26, 28, 34) to a first connecting surface of the first part to be connected to the second part via brazing or soldering; - aligning the second part and the first part; - electro-chemically machining or precise electro-chemically machining (PECM) a second connecting surface of the second part by polarizing the first part as a cathode and the second part as an anode, whereby further microstructural elements (30, 32) corresponding to the first microstructural elements (26, 28, 34) which have been added to the first part are also added as a negative form to the second part via ECM or PECM process. - adding first microstructural elements (26, 28, 34) to a first connecting surface of the first part to be connected to the second part via brazing or soldering; - aligning the second part and the first part; - electro-chemically machining or precise electro-chemically machining (PECM) a second connecting surface of the second part by polarizing the first part as a cathode and the second part as an anode, whereby further microstructural elements (30, 32) corresponding to the first microstructural elements (26, 28, 34) which have been added to the first part are also added as a negative form to the second part via ECM or PECM process.
A meridional fan adapted to be rotatably mounted in a duct ring of circular cross section for impelling air through the duct, and having a plurality of fan blades with peripheral blade tips having a width defining an arc with a circumferential extent describing, in operation, a circular path adjacent the duct ring, the blade tips each having a leading edge, a trailing edge and a tip outer surface, a leakage path being formed between the tip outer surface and the duct ring, at least one of the edges and/or the outer surface having a non-uniform profile for influencing the flow of air through the flow leakage path, characterised in that: the or each tip has a flange extending in the axial direction on the downstream, high pressure side of the fan, which increases the length of the leakage flow path, and wherein the leading edge of the flange has a non-uniform profile so that the circumferential axial extent of the leading edge of the flange varies along the width of the blade tip.. the or each tip has a flange extending in the axial direction on the downstream, high pressure side of the fan, which increases the length of the leakage flow path, and wherein the leading edge of the flange has a non-uniform profile so that the circumferential axial extent of the leading edge of the flange varies along the width of the blade tip..
A bearing housing that is provided with a cooling channel in at least part of the circumference around the bearing, wherein the cooling channel is provided with a flow guide member at least in part of its flow section to construct a tortuous passage whose flow distance is longer than the corresponding circumferential length of the flow section, wherein the flow guide member is formed integrally with only one of the top and the bottom of the cooling channel, with a radial height (h) thereof being no less than 50% of the top-bottom spacing of the cooling channel, characterised in that a gap passage (g) is provided between the flow guide member and the other one of the top and the bottom of the cooling channel.
A mobile terminal comprising: a camera; a display configured to display an image obtained by the camera; a touch sensor configured to obtain a touch input applied by a user; a location information module configured to obtain the position of the mobile terminal; and a controller configured to superpose one or more information items (T1, T2, T3, T4) corresponding to one or more specific locations (LI, L2, L3) included in the obtained image on the one or more specific locations (L1, L2, L3) and display the obtained image with the one or more information items (Tl, T2, T3, T4), wherein the one or more information items (T1, T2, T3, T4) and position information tagged on the one or more information items (T1, T2, T3, T4) are acquired from a social network service server; characterized in that the controller is configured to selectively filter the one or more information items (T1, T2, T3, T4) based on at least one standard, wherein the controller displays one of the information items (T1, T2, T3, T4) in front of the other based on a touch input applied by the user to the touch sensor of the mobile terminal. a camera; a display configured to display an image obtained by the camera; a touch sensor configured to obtain a touch input applied by a user; a location information module configured to obtain the position of the mobile terminal; and a controller configured to superpose one or more information items (T1, T2, T3, T4) corresponding to one or more specific locations (LI, L2, L3) included in the obtained image on the one or more specific locations (L1, L2, L3) and display the obtained image with the one or more information items (Tl, T2, T3, T4), wherein the one or more information items (T1, T2, T3, T4) and position information tagged on the one or more information items (T1, T2, T3, T4) are acquired from a social network service server; characterized in that the controller is configured to selectively filter the one or more information items (T1, T2, T3, T4) based on at least one standard, wherein the controller displays one of the information items (T1, T2, T3, T4) in front of the other based on a touch input applied by the user to the touch sensor of the mobile terminal.