mhurhangee/patent-ind-claim-en huggingface dataset:
A video decoding method comprising the steps of: generating a merge candidate list for a current block; determining a merge candidate for the current block among merge candidates included in the merge candidate list; deriving an offset vector for the current block; and deriving a motion vector for the current block by adding the offset vector to a motion vector of the merge candidate, wherein a motion magnitude value of the derived offset vector is determined based on first index information specifying the motion magnitude value of the derived offset vector indicating the magnitude of the derived offset vector among a range of values of first indices and corresponding motion magnitude values, wherein the magnitude of the offset vector is obtained by applying a shift operation by a preset value to the motion magnitude value specified by the first index information, wherein the direction of the offset vector is determined based on second index information specifying one among a plurality of vector direction values, wherein the range of motion magnitude values is set differently based on the motion vector precision, whilst using the same set of indices, wherein when the motion vector precision for the current block is a fractional-pel, values of the variable motion magnitude corresponding to respective values of the first index information are set to 1, 2, 4, 8, or 16; and when the motion vector precision for the current block is an integer-pel, values of the variable motion magnitude corresponding to respective values of the first index information are set to 4, 8, 16, 32, or 64. generating a merge candidate list for a current block; determining a merge candidate for the current block among merge candidates included in the merge candidate list; deriving an offset vector for the current block; and deriving a motion vector for the current block by adding the offset vector to a motion vector of the merge candidate, wherein a motion magnitude value of the derived offset vector is determined based on first index information specifying the motion magnitude value of the derived offset vector indicating the magnitude of the derived offset vector among a range of values of first indices and corresponding motion magnitude values, wherein the magnitude of the offset vector is obtained by applying a shift operation by a preset value to the motion magnitude value specified by the first index information, wherein the direction of the offset vector is determined based on second index information specifying one among a plurality of vector direction values, wherein the range of motion magnitude values is set differently based on the motion vector precision, whilst using the same set of indices, wherein when the motion vector precision for the current block is a fractional-pel, values of the variable motion magnitude corresponding to respective values of the first index information are set to 1, 2, 4, 8, or 16; and when the motion vector precision for the current block is an integer-pel, values of the variable motion magnitude corresponding to respective values of the first index information are set to 4, 8, 16, 32, or 64.
An automatic reset method for a consumable chip, characterized by comprising: in response to determining that an ink amount state is an ink-out state, entering an automatic reset state and shielding a printer command (s1); shielding a printer dock command and turning off a chip core in the automatic reset state (s2); entering a reset allowing state after shielding N groups of printer dock commands in the automatic reset state (s3); and resetting ink amount data and turning on the chip core in the reset allowing state (s4). in response to determining that an ink amount state is an ink-out state, entering an automatic reset state and shielding a printer command (s1); shielding a printer dock command and turning off a chip core in the automatic reset state (s2); entering a reset allowing state after shielding N groups of printer dock commands in the automatic reset state (s3); and resetting ink amount data and turning on the chip core in the reset allowing state (s4).
A method in user equipment, UE, the method comprising: in a cooperation mode, in which the UE acts as a cooperating UE, CUE, in a cooperating group of UEs for a target UE, TUE: receiving a group-specific common-parameters configuration, CPC, message from a transmit point, TP, over a first spectrum band, the group-specific CPC message comprising information related to a priority class index associated with traffic intended for the TUE ; receiving traffic intended for the TUE from the TP over the first spectrum band ; and accessing a second spectrum band as frame based equipment, FBE, in accordance with a priority class index-specific set of channel access parameters corresponding to the priority class index associated with the traffic intended for the TUE to relay the traffic to the TUE via device-to-device, D2D, sidelink transmission over the second spectrum band . receiving a group-specific common-parameters configuration, CPC, message from a transmit point, TP, over a first spectrum band, the group-specific CPC message comprising information related to a priority class index associated with traffic intended for the TUE ; receiving traffic intended for the TUE from the TP over the first spectrum band ; and accessing a second spectrum band as frame based equipment, FBE, in accordance with a priority class index-specific set of channel access parameters corresponding to the priority class index associated with the traffic intended for the TUE to relay the traffic to the TUE via device-to-device, D2D, sidelink transmission over the second spectrum band .
Arrangement of a carrier part and at least one cover of a switch disconnector , wherein the cover comprises a cover part and a switching lever , wherein the cover part is movably mounted in the carrier part for moving the cover part from a first end position to a second end position and vice versa, wherein the switching lever is mounted in the cover part such that it can pivot about a pivot axis for moving the switching lever from a first pivot position to a second pivot position and vice versa, wherein the switching lever interacts with the carrier part for transforming a pivoting movement of the switching lever into a movement of the cover part relative to the carrier part , wherein the cover part is arranged in the first end position in the first pivot position of the switching lever , wherein the cover comprises a mechanical locking device , wherein the locking device comprises locking means which can be moved between an open position and a locking position and vice versa, wherein the locking means create a positively locking connection between the switching lever and the carrier part or between the switching lever and the cover part in the locking position for preventing pivoting of the switching lever from the first pivot position to the second pivot position, characterized in that the locking means create a positively locking connection between the cover part and the carrier part in the locking position for preventing movement of the cover part from the first end position to the second end position.
A transport refrigeration unit , comprising: a power generation unit ; a catalytic element ; an exhaust pipe ; a first tubular element fluidly interposed between the power generation unit and the catalytic element ; a second tubular element fluidly interposed between the catalytic element and the exhaust pipe ; the transport refrigeration unit being characterised by a first throttle valve operably disposed to control fluid flows in the first tubular element ; a second throttle valve operably disposed to control fluid flows in the second tubular element ; and a control system configured to control the power generation unit and the first and second throttle valves to effect the sound produced by the transport refrigeration unit . a power generation unit ; a catalytic element ; an exhaust pipe ; a first tubular element fluidly interposed between the power generation unit and the catalytic element ; a second tubular element fluidly interposed between the catalytic element and the exhaust pipe ; the transport refrigeration unit being characterised by a first throttle valve operably disposed to control fluid flows in the first tubular element ; a second throttle valve operably disposed to control fluid flows in the second tubular element ; and a control system configured to control the power generation unit and the first and second throttle valves to effect the sound produced by the transport refrigeration unit .
Fastening device for fastening a first component to a second component , in particular for fastening two body shell modules in motor vehicle manufacture, comprising a first connection and a second connection piece , wherein the first and the second connection piece each comprise: a component fastening surface , a connection piece fastening surface which is perpendicular to the component fastening surface and at least one, preferably two, lateral reinforcing surfaces which each connect a lateral end edge of the component fastening surface to a lateral end edge of the connection piece fastening surface , wherein the component fastening surface of the first connection piece is fastened to the first component , wherein the component fastening surface of the second connection piece is fastened to the second component , wherein the connection piece fastening surface of the first connection piece is fastened to the connection piece fastening surface of the second connection piece characterized in that the first and the second connection piece each have an extension surface , wherein the extension surface essentially forms a prolongation of the connection piece fastening surface which extends beyond the component fastening surface of the connection piece , so that when the connection pieces are used, the extension surface is located between the first and the second component .
Apparatus for controlling the indoor climate of an interior space with at least one indoor sensor , which is configured to detect at least one parameter characterizing the indoor climate, and with at least one actuator , by means of which the indoor climate can be influenced, and with at least one open-loop or closed-loop control device to which the signal of the indoor sensor can be supplied and which is configured to generate an output signal for the actuator , wherein the at least one indoor sensor can be used to detect a radon content of the room air in the interior space and the at least one actuator can be used to influence the opening angle of at least one window , characterized in that the at least one indoor sensor is further configured to detect a water vapor partial pressure in the room air of the interior space, wherein the apparatus further includes a device for detecting the water vapor partial pressure outside the interior space and the open-loop or closed-loop control device is configured to close the window irrespective of the radon content in the interior space if, in the event of a risk of mold growth, the water vapor partial pressure inside is lower than outside or, in the event of dry conditions, the water vapor partial pressure outside is lower than inside.
Device for manufacturing a batting roll from a batting web , comprising a machine frame ; and comprising a circulating endless belt ; and comprising a rotatably-borne deflection roller having a deflection roller axis ; and comprising a rotatably-borne opening roller having an opening roller axis ; and comprising a rotatably-borne ejection roller having an ejection roller axis ; and comprising a rotatably-borne tensioning roller having a tensioning roller axis , wherein the belt runs around the tensioning roller and the deflection roller and the opening roller and the ejection roller ; and comprising a core that is arranged so as to be stationary in a roll axis to receive the batting roll in a loop of the belt , which loop is formed between the deflection roller and the opening roller and becomes larger with an increasing batting roll diameter ; wherein the opening roller and the ejection roller and the tensioning roller are in each instance borne rotatably on a stump axle attached on one side and in a rotationally-fixed manner in a pivotable element , and the deflection roller is held rotatably in the machine frame with a one-sided bearing; characterized in that an adjustment of the inclination of the deflection roller axis or of the opening roller axis , or of the deflection roller axis and the opening roller axis , relative to the roll axis is provided.
A method for sending a synchronization signal, performed by a terminal device and applied in a sidelink system, the method comprising: determining a first carrier set, wherein the first carrier set comprises a plurality of carriers on which a synchronization signal for synchronizing multiple carriers can be transmitted; determining a set of carriers needed by the terminal device for data transmission; determining (S301) a second carrier set based on the first carrier set, wherein determining (S301) the second carrier set based on the first carrier set comprises: determining the second carrier set from the first carrier set according to the set of carriers needed by the terminal device for data transmission; and wherein determining the second carrier set from the first carrier set according to the set of carriers needed by the terminal device for data transmission comprises: determining all of carriers which are common in the first carrier set and the set of carriers needed by the terminal device for data transmission as the second carrier set; and sending (S302) a synchronization signal on all carriers in the second carrier set, wherein sending (S302) the synchronization signal on all carriers in the second carrier set comprises: sending the synchronization signal in a same sub-frame of all carriers in the second carrier set. determining a first carrier set, wherein the first carrier set comprises a plurality of carriers on which a synchronization signal for synchronizing multiple carriers can be transmitted; determining a set of carriers needed by the terminal device for data transmission; determining (S301) a second carrier set based on the first carrier set, wherein determining (S301) the second carrier set based on the first carrier set comprises: determining the second carrier set from the first carrier set according to the set of carriers needed by the terminal device for data transmission; and wherein determining the second carrier set from the first carrier set according to the set of carriers needed by the terminal device for data transmission comprises: determining all of carriers which are common in the first carrier set and the set of carriers needed by the terminal device for data transmission as the second carrier set; and sending (S302) a synchronization signal on all carriers in the second carrier set, wherein sending (S302) the synchronization signal on all carriers in the second carrier set comprises: sending the synchronization signal in a same sub-frame of all carriers in the second carrier set.
Polypropylene composition having a Melt Flow Rate (MFR 230/2.16) when measured according to ISO1133 of at least 12.0 - 75.0 g/10 min and comprising a. 65.0 - 85.0 wt.-% of a first copolymer of propylene and 2.0 - 5.0 wt.-% of a first comonomer (Como1) selected from C4 - C12 alpha olefins, and b. 15.0 - 35.0 wt.-% of a second copolymer of propylene and 5.0 - 25.0 wt.-% ethylene as a second comonomer, wherein the MFR of the second copolymer (b) is lower than the MFR of the first copolymer (a). a. 65.0 - 85.0 wt.-% of a first copolymer of propylene and 2.0 - 5.0 wt.-% of a first comonomer (Como1) selected from C4 - C12 alpha olefins, and b. 15.0 - 35.0 wt.-% of a second copolymer of propylene and 5.0 - 25.0 wt.-% ethylene as a second comonomer,
Apparatus for handling harness elements, which comprises a first holding element and at least one further holding element for harness elements, wherein the first holding element and the at least one further holding element are designed to be moved cyclically between a supplying device and a receiving device , characterized in that at least the first holding element is designed such that it can perform at least part of its movement between the supplying device and the receiving device while the at least one further holding element is not moved. which comprises a first holding element and at least one further holding element for harness elements, wherein the first holding element and the at least one further holding element are designed to be moved cyclically between a supplying device and a receiving device , characterized in that at least the first holding element is designed such that it can perform at least part of its movement between the supplying device and the receiving device while the at least one further holding element is not moved.
A composition for affecting dipteran hematophagous parasites by attracting mosquitoes and repelling sand flies, the composition comprising: linalool 5%-25% by weight; phenylacetaldehyde 5%-45% by weight; β-myrcene 0%-50% by weight; anethole 5%-45% by weight; anisic acid methyl ester 0%-25% by weight; phenethyl alcohol 1%-35% by weight; caryophyllene 2%-20% by weight; 4-methoxybenzyl alcohol 1%-25% by weight; methyl salicylate 0.1%-20% by weight; γ -terpinene 1%-45% by weight; α-terpinene 1%-45% by weight; limonene 5%-30% by weight; and BHT 1%-25% by weight.
A capacitive strain sensor for sensing strain, the sensor comprising: a first section configured and adapted to be attached to a structure at a first location, the first section including: a core ; and a first capacitor plate being electrically isolated from the structure; a second section configured and adapted to be attached to the structure at a second location, the second section including: a ring having an inner diameter that is greater than the outer diameter of the core; and a pair of opposed capacitive plates being electrically isolated from the structure; and a device configured to flexibly connect the first section to the second section, wherein the core and ring have dimensions along a longitudinal axis, wherein the capacitive plate of the first section is separated from the opposed capacitive plates of the second section by a capacitive gap therebetween; and wherein strain experienced by the structure to which the sensor is attached causes a change in the capacitive gaps due to relative motion between the first and second sections , characterised in that the first capacitive plate is a metallic coating at least partially covering the core, and the pair of opposed capacitive plates (56-1, 56-2) are two metallic coatings at least partially covering the ring. a first section configured and adapted to be attached to a structure at a first location, the first section including: a core ; and a first capacitor plate being electrically isolated from the structure; a core ; and a first capacitor plate being electrically isolated from the structure; a second section configured and adapted to be attached to the structure at a second location, the second section including: a ring having an inner diameter that is greater than the outer diameter of the core; and a pair of opposed capacitive plates being electrically isolated from the structure; and a ring having an inner diameter that is greater than the outer diameter of the core; and a pair of opposed capacitive plates being electrically isolated from the structure; and a device configured to flexibly connect the first section to the second section, wherein the core and ring have dimensions along a longitudinal axis, wherein the capacitive plate of the first section is separated from the opposed capacitive plates of the second section by a capacitive gap therebetween; and wherein strain experienced by the structure to which the sensor is attached causes a change in the capacitive gaps due to relative motion between the first and second sections , characterised in that the first capacitive plate is a metallic coating at least partially covering the core, and the pair of opposed capacitive plates (56-1, 56-2) are two metallic coatings at least partially covering the ring.
Method of fabricating a slot tube, in particular a slot tube screen filter, which effects controlled adjustment of a desired fine filter slot opening, which starts from a conventionally produced slot tube assembly of interconnected basic elements, which consist of axially extending support profiles wrapped around with radially crossing wire windings of profile wire, which are solidly fixed together at each mutual crossing and whereby adjoining profile wire windings delimit and define an interstitial, continuous filter slot opening of given initial width, characterized in that said known slot tube is subjected to torsion deformation by rotary twist, whereby the slot tube mantle is twisted relative to the slot tube axis by an adjustable amount of rotations within the plastic torsion area causing a permanent helical twist of the axial support ribs, and continuing said rotational twisting until a desired final finer slot opening width or a required gradual narrowing of initial filter slot opening is reached, which final slot opening has a width smaller than 0,040 mm.
High-pressure fuel pump for a fuel injection system of an internal combustion engine, having a pump housing and a pump cover mounted on the pump housing , which, together with the pump housing , delimits a low-pressure chamber , wherein a recess is formed in the pump housing in which a pressure-limiting valve is arranged, wherein the recess is fluidically connected to the low-pressure chamber via a channel , wherein the channel has, at its end facing the low-pressure chamber , the same or a larger cross section than at its end facing the recess and characterized in that the central longitudinal axis of the channel and the central longitudinal axis of the low-pressure chamber are congruent to one another.