mhurhangee/ep-ind-claims huggingface dataset:
A method of coding video data using Inter prediction mode or Merge mode in a video coding system, wherein the video data is configured into a Base Layer, BL, and an Enhancement Layer, EL, and the EL has higher spatial resolution than the BL, the method comprising: receiving information associated with input data corresponding to a selected block in the EL from a media or a processor; identifying at least one motion vector associated with a respective at least one collocated block in the BL; deriving a candidate list for the selected block in the EL, comprising motion vector prediction, MVP, candidates, when Inter prediction mode is used, or Merge candidates when Merge mode is used, wherein an inter-layer candidate corresponding to said at least one motion vector associated with said respective at least one collocated block in the BL is included in the MVP candidate list or the Merge candidate list; deriving a spatial or temporal candidate in the EL; and coding the input data corresponding to the selected block using the MVP candidate list or the Merge candidate list, characterized in that including the at least one motion vector associated with said respective at least one collocated block in the BL in the MVP candidate list or the Merge candidate list, comprises setting the at least one motion vector as a first candidate in the MVP candidate list or the Merge candidate list. receiving information associated with input data corresponding to a selected block in the EL from a media or a processor; identifying at least one motion vector associated with a respective at least one collocated block in the BL; deriving a candidate list for the selected block in the EL, comprising motion vector prediction, MVP, candidates, when Inter prediction mode is used, or Merge candidates when Merge mode is used, wherein an inter-layer candidate corresponding to said at least one motion vector associated with said respective at least one collocated block in the BL is included in the MVP candidate list or the Merge candidate list; deriving a spatial or temporal candidate in the EL; and coding the input data corresponding to the selected block using the MVP candidate list or the Merge candidate list, characterized in that including the at least one motion vector associated with said respective at least one collocated block in the BL in the MVP candidate list or the Merge candidate list, comprises setting the at least one motion vector as a first candidate in the MVP candidate list or the Merge candidate list.
A sack, in particular, a pinch-bottom sack, which can be filled with a bulk material, having a sheath with at least one surface element, wherein the sheath has a fabric and the surface element has a gripping means, which comprises a load element, on which a carrying force can be applied for lifting the sack, wherein the load element is designed in such a manner that it protrudes at least in certain regions relative to an outer side (3.2) of the surface element at least in a load state, in which the carrying force acts on the load element, wherein the load element has a reinforcing means, characterized in that the surface element, the load element and the reinforcing means are of uniform material, wherein each of the components has the same fabric.
A wing for an aircraft comprising a fixed body, a movable tip, and an assembly for moving the movable tip relative to the fixed body, the assembly comprising: a linear actuator configured to pivotally attach to both the fixed body of the wing and the movable tip of the wing, such that the linear actuator is configured to extend between a first pivotal attachment on the fixed body and a second pivotal attachment on the movable tip, wherein the linear actuator is configured to repeatedly move the movable tip of the wing from an unfolded position to a folded position, wherein throughout such movement the linear actuator is configured to pivot about both the first and second pivotal attachments, characterised in that: a lever arm of the linear actuator increases upon the linear actuator moving the movable tip of the wing from the unfolded position to the folded position, the lever arm being defined as a perpendicular distance from an axis of rotation of the movable tip of the wing to a longitudinal axis of the linear actuator. a linear actuator configured to pivotally attach to both the fixed body of the wing and the movable tip of the wing, such that the linear actuator is configured to extend between a first pivotal attachment on the fixed body and a second pivotal attachment on the movable tip, wherein the linear actuator is configured to repeatedly move the movable tip of the wing from an unfolded position to a folded position, wherein throughout such movement the linear actuator is configured to pivot about both the first and second pivotal attachments, characterised in that: a lever arm of the linear actuator increases upon the linear actuator moving the movable tip of the wing from the unfolded position to the folded position, the lever arm being defined as a perpendicular distance from an axis of rotation of the movable tip of the wing to a longitudinal axis of the linear actuator.
A capsule comprising a liquid core, a gelled shell totally encapsulating the liquid core at its periphery, the gelled shell being able to retain the liquid core when the capsule is immersed in a gas, the gelled shell comprising at least one gelled polyelectrolyte and at least one surfactant, characterized in that the liquid core comprises at least one cell with hematopoietic potential.
Starting block for swimming pools comprising: - a base portion, constrainable to the perimetrical structure of the swimming pool at one of its head vertical walls; - an upper walkable portion, supported by the base portion and aligned with the head vertical wall of the swimming pool so as to be used as a platform by a swimmer; - one or more handgrips, protruding from the base portion towards the internal part of the swimming pool and useable by the swimmer during the starting stages of a swimming competition; and - a support means for supporting the feet of the swimmer, operatively connected to said starting block and provided with a moving system which allows said support means to move between a first operating position, wherein said support means leans against the head vertical wall so as to form a step which is inclined with respect to said head vertical wall and facing upwards, and a second rest position, wherein said support means is outside the swimming pool and does not represent an obstacle for the swimmers who are inside the swimming pool or on said starting block, wherein the support means is made up of a plate constrained to the starting block by means of belts, the starting block being characterised in that said belts are in turn constrained to said starting block through a bar rotatably connected to a support framework removably constrained to said starting block so that, after the swimmer starts, the support means can be manually and easily removed from said starting block. - a base portion, constrainable to the perimetrical structure of the swimming pool at one of its head vertical walls; - an upper walkable portion, supported by the base portion and aligned with the head vertical wall of the swimming pool so as to be used as a platform by a swimmer; - one or more handgrips, protruding from the base portion towards the internal part of the swimming pool and useable by the swimmer during the starting stages of a swimming competition; and - a support means for supporting the feet of the swimmer, operatively connected to said starting block and provided with a moving system which allows said support means to move between a first operating position, wherein said support means leans against the head vertical wall so as to form a step which is inclined with respect to said head vertical wall and facing upwards, and a second rest position, wherein said support means is outside the swimming pool and does not represent an obstacle for the swimmers who are inside the swimming pool or on said starting block,
An apparatus, comprising: an execution lane array (305, 405) coupled to a two-dimensional shift register array structure (306, 406), wherein the execution lane array (305, 405) is an array of execution lanes (510, 601), wherein the execution lane array (305, 405) is configured to simultaneously operate on multiple overlapping stencils of image data loaded into the two-dimensional shift register array structure (306, 406), wherein each execution lane (510,610) in the execution lane array (305, 405) comprises a first register, the first register being a physical register of the execution lane (510,610); wherein each execution lane (510,610) has a location in the execution lane array (305, 405) and is coupled to a register file at a same location in the two-dimensional shift register array structure (306, 406), the register file including at least a second shift register, being a physical register of the two-dimensional shift register array structure (306, 406), such that different execution lanes (510, 601) of the execution lane array (305, 405) have different dedicated registers; wherein each execution lane (510,610) may read from or write to any of its first register and its dedicated register(s); and wherein an execution lane is configured to shift content from its coupled register file to a register file coupled to a logically neighbouring execution lane and to shift content into its coupled register file from a register file coupled to a logically neighbouring execution lane such that content shifts between logically neighbouring execution lanes are in a same direction. an execution lane array (305, 405) coupled to a two-dimensional shift register array structure (306, 406), wherein the execution lane array (305, 405) is an array of execution lanes (510, 601), wherein the execution lane array (305, 405) is configured to simultaneously operate on multiple overlapping stencils of image data loaded into the two-dimensional shift register array structure (306, 406), wherein each execution lane (510,610) in the execution lane array (305, 405) comprises a first register, the first register being a physical register of the execution lane (510,610); wherein each execution lane (510,610) has a location in the execution lane array (305, 405) and is coupled to a register file at a same location in the two-dimensional shift register array structure (306, 406), the register file including at least a second shift register, being a physical register of the two-dimensional shift register array structure (306, 406), such that different execution lanes (510, 601) of the execution lane array (305, 405) have different dedicated registers; wherein each execution lane (510,610) may read from or write to any of its first register and its dedicated register(s); and wherein an execution lane is configured to shift content from its coupled register file to a register file coupled to a logically neighbouring execution lane and to shift content into its coupled register file from a register file coupled to a logically neighbouring execution lane such that content shifts between logically neighbouring execution lanes are in a same direction.
A washer/dryer comprising a body; a drum which is disposed into the body and wherein the washing and/or drying process is realized; at least one baffle which is fixed onto the inner wall of the drum and which has a base, at least two side walls and a ceiling connecting the two side walls, at least one additional baffle which extends from the base towards the axis of rotation of the drum along the side walls and which gains a different form on the baffle by creating a protrusion on the side walls of the baffle characterized by at least one outlet which is provided on the additional baffle and the baffle to discharge the water in the baffle and the additional baffle into the drum and at least one spiral or quadratic guiding member that is disposed along the inner wall of the additional baffle.
A zeroing assembly for a gun-sight comprising: a zeroing target; characterized by: a dual band lens; and a switching mechanism configured to reversibly move the dual band lens from a first position to a second position along its optical axis, thereby switching the zeroing assembly from a first sighting configuration wherein light in a first band from said zeroing target is focused on a gun sight to a second sighting configuration wherein light in a second band from said zeroing target is focused on said gun sight. a zeroing target; characterized by: a dual band lens; and a switching mechanism configured to reversibly move the dual band lens from a first position to a second position along its optical axis, thereby switching the zeroing assembly from a first sighting configuration wherein light in a first band from said zeroing target is focused on a gun sight to a second sighting configuration wherein light in a second band from said zeroing target is focused on said gun sight. a dual band lens; and a switching mechanism configured to reversibly move the dual band lens from a first position to a second position along its optical axis, thereby switching the zeroing assembly from a first sighting configuration wherein light in a first band from said zeroing target is focused on a gun sight to a second sighting configuration wherein light in a second band from said zeroing target is focused on said gun sight.
A method of transmitting, by a terminal, uplink Acknowledgement information for downlink data in a mobile communication system using Orthogonal Frequency-Division Multiple Access, OFDMA, the method comprising: identifying at least two transmission antennas of the terminal; determining uplink ACK channel resources for acknowledging the downlink data based on a first Control Channel Element, CCE, index and a second CCE index of at least two CCEs associated with a downlink control channel; generating uplink acknowledgement information for the downlink data; assigning the uplink ACK channel resources to the at least two transmission antennas; and transmitting the uplink acknowledgement information through the at least two transmission antennas in a subframe, wherein the uplink acknowledgement information is transmitted in a slot of said subframe using a first uplink ACK channel resource of the uplink ACK channel resources through a first transmission antenna of the at least two transmission antennas and in said slot using a second uplink ACK channel resource of the uplink ACK channel resources through a second transmission antenna of the at least two transmission antennas, wherein the determining of the uplink ACK channel resources includes determining first cyclic shift and first orthogonal cover associated with the first uplink ACK channel resource and second cyclic shift and second orthogonal cover associated with the second uplink ACK channel resource. identifying at least two transmission antennas of the terminal; determining uplink ACK channel resources for acknowledging the downlink data based on a first Control Channel Element, CCE, index and a second CCE index of at least two CCEs associated with a downlink control channel; generating uplink acknowledgement information for the downlink data; assigning the uplink ACK channel resources to the at least two transmission antennas; and transmitting the uplink acknowledgement information through the at least two transmission antennas in a subframe, wherein the uplink acknowledgement information is transmitted in a slot of said subframe using a first uplink ACK channel resource of the uplink ACK channel resources through a first transmission antenna of the at least two transmission antennas and in said slot using a second uplink ACK channel resource of the uplink ACK channel resources through a second transmission antenna of the at least two transmission antennas, wherein the determining of the uplink ACK channel resources includes determining first cyclic shift and first orthogonal cover associated with the first uplink ACK channel resource and second cyclic shift and second orthogonal cover associated with the second uplink ACK channel resource.
An apparatus for producing aerosol, the apparatus comprising: - a first atomizer for producing a first aerosol jet and a second atomizer for producing a second aerosol jet, wherein each of said aerosol jets is produced from one or more liquid precursors and discharged from a respective atomizer (1, 2) through a discharge opening (8a, 8b) in the atomizer (1, 2), wherein - each atomizer (1, 2) comprises an atomizing head in which the liquid is atomized into an atomized aerosol jet, - each atomizing head is directly connected to a tubular focusing part arranged to restrain the atomized aerosol jet for providing a punctual aerosol jet, characterized in that - said first and second atomizers (1, 2) form an atomizer pair such that the atomizers (1, 2) are aligned coaxially opposite one another for colliding the punctual aerosol jets directly into each other, the first and the second atomizers (1, 2) are arranged in a substantially vertical direction such that aerosol formed in the collision of the first aerosol jet and the second aerosol jet forms a substantially horizontal aerosol plane when escaping from the collision point. - a first atomizer for producing a first aerosol jet and a second atomizer for producing a second aerosol jet, wherein each of said aerosol jets is produced from one or more liquid precursors and discharged from a respective atomizer (1, 2) through a discharge opening (8a, 8b) in the atomizer (1, 2), wherein - each atomizer (1, 2) comprises an atomizing head in which the liquid is atomized into an atomized aerosol jet, - each atomizing head is directly connected to a tubular focusing part arranged to restrain the atomized aerosol jet for providing a punctual aerosol jet, characterized in that - said first and second atomizers (1, 2) form an atomizer pair such that the atomizers (1, 2) are aligned coaxially opposite one another for colliding the punctual aerosol jets directly into each other,
A method for controlling the performance of a plate loudspeaker, the method comprising: processing a signal into a plurality of sub-signals using a modal crossover network, wherein each sub-signal is associated with a frequency band; assigning each sub-signal to one or more of a plurality of modal drivers, which are a linear combination of drivers located on a plate of the plate loudspeaker, wherein the plate has a surface covered with the plurality of drivers at indexed locations, and assigning a relative amplitude to each of the plurality of modal drivers, calculating, by the modal crossover network, the relative amplitudes of the sub-signal sent to each modal driver based on spatial filtering of modes on the plate, wherein the sub-signal and the relative amplitude assigned to each of the plurality of modal drivers are determined based at least on the location of the drivers on the plate; and wherein modal driver amplitudes are configured to generate sound through selected modes at specific amplitudes, and wherein the plate is driven to modes of motion by the plurality of drivers to generate the sound output of the plate loudspeaker, wherein each mode has a spatial shape function and a temporal function which modulates the spatial shape; routing each sub-signal to its assigned one or more plurality of modal drivers; and calculating actual driver amplitudes from the calculated modal driver sub-signal amplitudes, driving the plate loudspeaker with the plurality of drivers having received the calculated actual driver amplitudes. processing a signal into a plurality of sub-signals using a modal crossover network, wherein each sub-signal is associated with a frequency band; assigning each sub-signal to one or more of a plurality of modal drivers, which are a linear combination of drivers located on a plate of the plate loudspeaker, wherein the plate has a surface covered with the plurality of drivers at indexed locations, and assigning a relative amplitude to each of the plurality of modal drivers, calculating, by the modal crossover network, the relative amplitudes of the sub-signal sent to each modal driver based on spatial filtering of modes on the plate, wherein the sub-signal and the relative amplitude assigned to each of the plurality of modal drivers are determined based at least on the location of the drivers on the plate; and wherein modal driver amplitudes are configured to generate sound through selected modes at specific amplitudes, and wherein the plate is driven to modes of motion by the plurality of drivers to generate the sound output of the plate loudspeaker, wherein each mode has a spatial shape function and a temporal function which modulates the spatial shape; routing each sub-signal to its assigned one or more plurality of modal drivers; and calculating actual driver amplitudes from the calculated modal driver sub-signal amplitudes, driving the plate loudspeaker with the plurality of drivers having received the calculated actual driver amplitudes.
A steering control device that controls a motor that serves as a generation source for a drive force to be applied to a steering mechanism of a vehicle on the basis of an assist command value (Ta*) computed in accordance with a steering operation, comprising: a first computation circuit that computes a basic component (T a1 *) of the assist command value in accordance with at least steering torque (Th); and a second computation circuit that computes a compensation component (T a2 *) for the basic component through feedback control in which an actual rotational angle (θm,θp) of a rotary body that rotates through the steering operation is caused to coincide with a target rotational angle (θp*) calculated in accordance with the basic component (T a1 *), wherein the second computation circuit computes, on the basis of at least the target rotational angle, a first reaction force component (T sp1 *) for the basic component (Tsp*) that is used to compute the target rotational angle, and the second computation circuit computes, on the basis of a state amount that reflects vehicle behavior or a road surface state (V,YR,LA), a second reaction force component (Tsp2*) for the basic component that is used to compute the target rotational angle, characterised by the fact that the second computation circuit, in a case where a difference value between the first reaction force component and the second reaction force component is increased, increases a proportion of use of the second reaction force component compared to that before the difference value is increased. a first computation circuit that computes a basic component (T a1 *) of the assist command value in accordance with at least steering torque (Th); and a second computation circuit that computes a compensation component (T a2 *) for the basic component through feedback control in which an actual rotational angle (θm,θp) of a rotary body that rotates through the steering operation is caused to coincide with a target rotational angle (θp*) calculated in accordance with the basic component (T a1 *), wherein the second computation circuit computes, on the basis of at least the target rotational angle, a first reaction force component (T sp1 *) for the basic component (Tsp*) that is used to compute the target rotational angle, and the second computation circuit computes, on the basis of a state amount that reflects vehicle behavior or a road surface state (V,YR,LA), a second reaction force component (Tsp2*) for the basic component that is used to compute the target rotational angle, characterised by the fact that the second computation circuit, in a case where a difference value between the first reaction force component and the second reaction force component is increased, increases a proportion of use of the second reaction force component compared to that before the difference value is increased.