mhurhangee/patent-ind-claim-en huggingface dataset:
A method of coding video information using scalable extension to High Efficiency Video Coding, SHVC, or multi-view High Efficiency Video Coding, MV-HEVC, comprising: storing video information associated with a plurality of layers; determining whether sps_temporal_id_nesting_flag is present in a sequence parameter set of a bitstream, wherein sps_temporal_id_nesting_flag is used to indicate whether a temporal identifier, ID, of a reference picture for pictures that refer to the sequence parameter set, SPS, can be nested; and in response to determining that sps_temporal_id_nesting_flag is not present in the bitstream: when the value of sps_max_sub_layers_minus1 of the SPS is greater than zero, sps_max_sub_layers_minus1 indicating a maximum number of temporal sub-layers in a particular layer of the plurality of layers, inferring a value of sps_temporal_id_nesting_flag to be equal to a value of vps_temporal_id_nesting_flag present in the video parameter set of the bitstream, vps_temporal_id_nesting_flag indicating whether a temporal ID of a reference picture for any pictures can be nested; and otherwise, inferring the value of sps_temporal_id_nesting_flag to be equal to 1. storing video information associated with a plurality of layers; determining whether sps_temporal_id_nesting_flag is present in a sequence parameter set of a bitstream, wherein sps_temporal_id_nesting_flag is used to indicate whether a temporal identifier, ID, of a reference picture for pictures that refer to the sequence parameter set, SPS, can be nested; and in response to determining that sps_temporal_id_nesting_flag is not present in the bitstream: when the value of sps_max_sub_layers_minus1 of the SPS is greater than zero, sps_max_sub_layers_minus1 indicating a maximum number of temporal sub-layers in a particular layer of the plurality of layers, inferring a value of sps_temporal_id_nesting_flag to be equal to a value of vps_temporal_id_nesting_flag present in the video parameter set of the bitstream, vps_temporal_id_nesting_flag indicating whether a temporal ID of a reference picture for any pictures can be nested; and otherwise, inferring the value of sps_temporal_id_nesting_flag to be equal to 1. when the value of sps_max_sub_layers_minus1 of the SPS is greater than zero, sps_max_sub_layers_minus1 indicating a maximum number of temporal sub-layers in a particular layer of the plurality of layers, inferring a value of sps_temporal_id_nesting_flag to be equal to a value of vps_temporal_id_nesting_flag present in the video parameter set of the bitstream, vps_temporal_id_nesting_flag indicating whether a temporal ID of a reference picture for any pictures can be nested; and otherwise, inferring the value of sps_temporal_id_nesting_flag to be equal to 1.
A scintillator panel comprising: a plate-like substrate ; a grid-like barrier rib provided on the substrate ; and a scintillator layer containing a phosphor filled in cells divided by the barrier rib , wherein the barrier rib is formed of a material 50 to 100% by mass of which is composed of a low-melting-point glass having a softening temperature of 700 °C or lower, and the substrate is formed of a material 20 to 100% by mass of which is composed of a ceramic selected from the group consisting of alumina, aluminum nitride, mullite and steatite, characterized in that the substrate is a polycrystalline substance.
A multi-layer negative electrode comprising: a current collector configured to transmit electrons between an outer lead and a negative electrode active material; a first negative electrode mixture layer formed on one surface or both surfaces of the current collector and including a first negative electrode active material and a first binder; and a second negative electrode mixture layer formed on the first negative electrode mixture layer and including a second negative electrode active material, wherein the first negative electrode mixture layer has an electrode density of 0.9 to 2.0 g/cm 3 and the second negative electrode mixture layer has an electrode density of 0.2 to 1.7 g/cm 3 , which is a range lower than that of the electrode density of the first negative electrode mixture layer, wherein the second negative electrode mixture layer further includes a second binder, and a weight ratio of the first binder and the second binder (the first binder/the second binder) is 1.2 to 10, preferably 3 to 8. a current collector configured to transmit electrons between an outer lead and a negative electrode active material; a first negative electrode mixture layer formed on one surface or both surfaces of the current collector and including a first negative electrode active material and a first binder; and a second negative electrode mixture layer formed on the first negative electrode mixture layer and including a second negative electrode active material, wherein the first negative electrode mixture layer has an electrode density of 0.9 to 2.0 g/cm 3 and the second negative electrode mixture layer has an electrode density of 0.2 to 1.7 g/cm 3 , which is a range lower than that of the electrode density of the first negative electrode mixture layer, wherein the second negative electrode mixture layer further includes a second binder, and a weight ratio of the first binder and the second binder (the first binder/the second binder) is 1.2 to 10, preferably 3 to 8.
A foldable device comprising: a flexible display comprising a display area (a3) and at least one edge display area (a1, a1-1, a1-2) configured to display content with respect to an event on the at least one edge display area (a1, a1-1, a1-2) in response to the event; a sensing unit configured to sense an angle at which the foldable device is unfolded; and a controller configured to: based on detecting an unfolding of the foldable device , control the flexible display to display a first content in a partial area (a2) of the display area (a3) being activated based on the angle at which the foldable device is unfolded, and in response to the angle at which the foldable device is unfolded being increased, expand a range of the partial area (a2) of the display area (a3) being further activated based on the angle to display a second content; wherein the controller is configured to adjust at least one of a type and an amount of content to be displayed on the expanded range of the partial area (a2) of the display area (a3) in accordance with an increase in the angle at which the foldable device is unfolded. a flexible display comprising a display area (a3) and at least one edge display area (a1, a1-1, a1-2) configured to display content with respect to an event on the at least one edge display area (a1, a1-1, a1-2) in response to the event; a sensing unit configured to sense an angle at which the foldable device is unfolded; and a controller configured to: based on detecting an unfolding of the foldable device , control the flexible display to display a first content in a partial area (a2) of the display area (a3) being activated based on the angle at which the foldable device is unfolded, and in response to the angle at which the foldable device is unfolded being increased, expand a range of the partial area (a2) of the display area (a3) being further activated based on the angle to display a second content; based on detecting an unfolding of the foldable device , control the flexible display to display a first content in a partial area (a2) of the display area (a3) being activated based on the angle at which the foldable device is unfolded, and in response to the angle at which the foldable device is unfolded being increased, expand a range of the partial area (a2) of the display area (a3) being further activated based on the angle to display a second content; wherein the controller is configured to adjust at least one of a type and an amount of content to be displayed on the expanded range of the partial area (a2) of the display area (a3) in accordance with an increase in the angle at which the foldable device is unfolded.
A receiving apparatus in a wireless communication system, the receiving apparatus comprising: a first interference cancellation unit (310-1) configured to cancel interference from a received signal that is received through an antenna according to a first scheme and to output a first interference-cancelled signal; a first estimation and equalization unit (320-1) configured to estimate a first channel, to equalize the first interference-cancelled signal based on the estimated first channel and to output a first equalized signal; a second interference cancellation unit (310-2) configured to cancel interference from the received signal that is received through the antenna according to a second scheme and to output a second interference-cancelled signal; a second estimation and equalization unit (320-2) configured to estimate a second channel, to equalize the second interference-cancelled signal based on the estimated second channel and to output a second equalized signal; and a combination unit configured to combine the first equalized signal and the second equalized signal. a first interference cancellation unit (310-1) configured to cancel interference from a received signal that is received through an antenna according to a first scheme and to output a first interference-cancelled signal; a first estimation and equalization unit (320-1) configured to estimate a first channel, to equalize the first interference-cancelled signal based on the estimated first channel and to output a first equalized signal; a second interference cancellation unit (310-2) configured to cancel interference from the received signal that is received through the antenna according to a second scheme and to output a second interference-cancelled signal; a second estimation and equalization unit (320-2) configured to estimate a second channel, to equalize the second interference-cancelled signal based on the estimated second channel and to output a second equalized signal; and a combination unit configured to combine the first equalized signal and the second equalized signal.
A clip for mounting a mounting member to a mount receiving member having a mounting hole , the clip comprising: a member mounting portion to which the mounting member can be mounted, an umbrella-shaped flange for pressing the mount receiving member , a pair of arm portions extending obliquely downward and outward from a central portion of the umbrella shaped flange , a pair of leg portions extending from the distal end portions of the pair of arm portions upward and outward and downward and inward, and a pair of locking stepped portions formed at the upper end portions of the pair of leg portions, characterized in that the clip further comprises a leg connecting portion connecting the lower end portions of the pair of leg portions , wherein the leg connecting portion has a pair of longitudinal portions and a curved portion joining the upper end portions of the pair of longitudinal portions. a member mounting portion to which the mounting member can be mounted, an umbrella-shaped flange for pressing the mount receiving member , a pair of arm portions extending obliquely downward and outward from a central portion of the umbrella shaped flange , a pair of leg portions extending from the distal end portions of the pair of arm portions upward and outward and downward and inward, and a pair of locking stepped portions formed at the upper end portions of the pair of leg portions, characterized in that the clip further comprises a leg connecting portion connecting the lower end portions of the pair of leg portions , wherein the leg connecting portion has a pair of longitudinal portions and a curved portion joining the upper end portions of the pair of longitudinal portions.
A display device , comprising: a substrate ; a driving thin-film transistor (T2) on the substrate ; a semiconductor light-emitting element having a first conductive electrode and a second conductive electrode ; and a planarization layer formed to cover the driving thin-film transistor (T2), and provided with a receiving hole for accommodating the semiconductor light-emitting element , wherein the semiconductor light-emitting element is formed to have a height higher than that of the planarization layer , and wherein a height adjustment layer is formed between the substrate and the planarization layer to match a height of one surface of the planarization layer to either one of the first conductive electrode and the second conductive electrode , characterised in that the planarization layer comprises photo acryl, and in that among the first conductive electrode and the second conductive electrode , the conductive electrode at a relatively lower position is positioned on the same horizontal line as an upper surface of the planarization layer , wherein the receiving hole passes through the planarization layer and the height adjustment layer , respectively, such that an upper surface of the substrate forms a bottom of the receiving hole , wherein the first conductive electrode and the second conductive electrode of the semiconductor light-emitting element are separated from the bottom of the receiving hole , and wherein the semiconductor light-emitting element is attached to an upper surface of the substrate in the receiving hole . a substrate ; a driving thin-film transistor (T2) on the substrate ; a semiconductor light-emitting element having a first conductive electrode and a second conductive electrode ; and a planarization layer formed to cover the driving thin-film transistor (T2), and provided with a receiving hole for accommodating the semiconductor light-emitting element , wherein the semiconductor light-emitting element is formed to have a height higher than that of the planarization layer , and wherein a height adjustment layer is formed between the substrate and the planarization layer to match a height of one surface of the planarization layer to either one of the first conductive electrode and the second conductive electrode , characterised in that the planarization layer comprises photo acryl, and in that among the first conductive electrode and the second conductive electrode , the conductive electrode at a relatively lower position is positioned on the same horizontal line as an upper surface of the planarization layer , wherein the receiving hole passes through the planarization layer and the height adjustment layer , respectively, such that an upper surface of the substrate forms a bottom of the receiving hole , wherein the first conductive electrode and the second conductive electrode of the semiconductor light-emitting element are separated from the bottom of the receiving hole , and wherein the semiconductor light-emitting element is attached to an upper surface of the substrate in the receiving hole .
A method of interleaving rate matched data for transmission, the method comprising: performing interleaving with a rectangular interleaver having a number N equal to Log2(constellation_size) of rows and a number of columns, wherein each row is an independent interleaving and rate matching engine; and for each of the N interleaving and rate matching engines: reading , for a block of encoded data on which interleaving and rate-matching is to be performed, the block of encoded data from a code block buffer, starting at a respective different starting point of the code block buffer corresponding to the each interleaving and rate matching engine, to generate interleaved and rate matched data; wherein each of the N interleaving and rate matching engines are configured to run in parallel with a same coded bit size and different starting offsets, each starting offset determined based at least in part on a corresponding line index, column number and a coded bit size according to (line index * column_number)% (coded bits); and providing encoded output data that includes the interleaved and rate matched data from the N interleaving and rate matching engines. performing interleaving with a rectangular interleaver having a number N equal to Log2(constellation_size) of rows and a number of columns, wherein each row is an independent interleaving and rate matching engine; and for each of the N interleaving and rate matching engines: reading , for a block of encoded data on which interleaving and rate-matching is to be performed, the block of encoded data from a code block buffer, starting at a respective different starting point of the code block buffer corresponding to the each interleaving and rate matching engine, to generate interleaved and rate matched data; wherein each of the N interleaving and rate matching engines are configured to run in parallel with a same coded bit size and different starting offsets, each starting offset determined based at least in part on a corresponding line index, column number and a coded bit size according to (line index * column_number)% (coded bits); and providing encoded output data that includes the interleaved and rate matched data from the N interleaving and rate matching engines. reading , for a block of encoded data on which interleaving and rate-matching is to be performed, the block of encoded data from a code block buffer, starting at a respective different starting point of the code block buffer corresponding to the each interleaving and rate matching engine, to generate interleaved and rate matched data; wherein each of the N interleaving and rate matching engines are configured to run in parallel with a same coded bit size and different starting offsets, each starting offset determined based at least in part on a corresponding line index, column number and a coded bit size according to (line index * column_number)% (coded bits); and providing encoded output data that includes the interleaved and rate matched data from the N interleaving and rate matching engines.
A turbine housing comprising: an inner pipe forming an exhaust air flow path (K) in which a turbine wheel is arranged; and an outer pipe covering the inner pipe in a state where a space (G) is interposed between the outer pipe and the inner pipe , characterized in that: a reinforcing plate is secured to a part of an inner surface of the outer pipe while being separated from the inner pipe , wherein the reinforcing plate is secured to the outer pipe by welding at least one point so that a non-welded portion exists. an inner pipe forming an exhaust air flow path (K) in which a turbine wheel is arranged; and an outer pipe covering the inner pipe in a state where a space (G) is interposed between the outer pipe and the inner pipe , characterized in that: a reinforcing plate is secured to a part of an inner surface of the outer pipe while being separated from the inner pipe , wherein the reinforcing plate is secured to the outer pipe by welding at least one point so that a non-welded portion exists. a reinforcing plate is secured to a part of an inner surface of the outer pipe while being separated from the inner pipe , wherein the reinforcing plate is secured to the outer pipe by welding at least one point so that a non-welded portion exists.
A downhole packer assembly , comprising: an outer skin ; an inner packer disposed within the outer skin such that inflation of the inner packer is configured to expand the outer skin ; an end support coupled to an outer skin end and an inner packer end; characterized by : a retraction assembly coupled to the end support via a plurality of connecting members ; and a plurality of chambers disposed within the retraction assembly , wherein the plurality of connecting members are at least partially disposed within the plurality of chambers , wherein the end support is configured to be moveable in a first direction upon inflation such that volumes of the plurality of chambers increase thereby exerting retraction forces on the plurality of connecting members . an outer skin ; an inner packer disposed within the outer skin such that inflation of the inner packer is configured to expand the outer skin ; an end support coupled to an outer skin end and an inner packer end; characterized by : a retraction assembly coupled to the end support via a plurality of connecting members ; and a plurality of chambers disposed within the retraction assembly , a retraction assembly coupled to the end support via a plurality of connecting members ; and a plurality of chambers disposed within the retraction assembly , wherein the plurality of connecting members are at least partially disposed within the plurality of chambers , wherein the end support is configured to be moveable in a first direction upon inflation such that volumes of the plurality of chambers increase thereby exerting retraction forces on the plurality of connecting members .
An LED power supply, comprising a circuit board assembly , which is provided with a high-voltage input terminal , a rectifier and filter circuit , a drive control module , a step-down transformer , a DC-DC line and an LED connection terminal that are electrically connected in series, wherein the drive control module comprises at least a control unit and a switching unit , wherein the circuit board assembly comprises a main board and at least one first sub-board that is electrically connected to the main board , the main board and the at least one first sub-board are perpendicular to each other, the first sub-board is provided with the drive control module , and the rectifier and filter circuit is provided on the main board and comprises a plurality of EMC devices; characterized in that the first sub-board is provided with a metal shielding tape which is arranged around the switching unit and grounded, wherein the metal shielding tape comprises at least a first segment extending outward from a position close to the main board , which is located on a side close to the edge of the first sub-board and is at least flush with the upper edge of the switching unit . the circuit board assembly comprises a main board and at least one first sub-board that is electrically connected to the main board , the main board and the at least one first sub-board are perpendicular to each other, the first sub-board is provided with the drive control module , and the rectifier and filter circuit is provided on the main board and comprises a plurality of EMC devices; characterized in that the first sub-board is provided with a metal shielding tape which is arranged around the switching unit and grounded, wherein the metal shielding tape comprises at least a first segment extending outward from a position close to the main board , which is located on a side close to the edge of the first sub-board and is at least flush with the upper edge of the switching unit .