mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device package comprising: a body having a cavity; a light emitting diode mounted in the cavity; and at least one optical sheet disposed on the body to cover the cavity, wherein the optical sheet includes a first layer, and a second layer formed on the first layer and which includes a plurality of linear prism parts, and wherein at least one of the first layer and the second layer contains a diffusive member, wherein the light diffusive member includes reflective particles having light reflectivity, wherein the light diffusive member includes a first diffusive member and a second diffusive member, the first diffusive member and the second diffusive member having different intrinsic colors, wherein the first layer contains the first light diffusive member, wherein the second layer contains the second light diffusive member characterized in that bosses and recesses to scatter emitted light are formed on the bottom of the body on which the light emitting diode is mounted; in that the light diffusive member is formed of at least one of gold, silver, copper and aluminum, wherein the first light diffusive member is formed of reflective particles of gold while the second light diffusive member is formed of reflective particles of silver; in that a hole is perforated in the bottom of the body immediately below the light emitting diode, and in that the optical sheet further includes a third layer formed beneath the first layer, and the third layer contains at least one of a fluorescent substance and a light diffusive member. a body having a cavity; a light emitting diode mounted in the cavity; and at least one optical sheet disposed on the body to cover the cavity, wherein the optical sheet includes a first layer, and a second layer formed on the first layer and which includes a plurality of linear prism parts, and wherein at least one of the first layer and the second layer contains a diffusive member, wherein the light diffusive member includes reflective particles having light reflectivity, wherein the light diffusive member includes a first diffusive member and a second diffusive member, the first diffusive member and the second diffusive member having different intrinsic colors, wherein the first layer contains the first light diffusive member, wherein the second layer contains the second light diffusive member
A processing method for descriptive data that describes information regarding media content components, the method comprising steps of: generating the descriptive data, and transmitting the generated descriptive data to a client, wherein the descriptive data include: at least two adaptation sets; quality ranking (HQ, MQ, LQ) of each of a plurality of media content components which are belonging to each adaptation set; a quality rule (640, 660) to select and combine at least two media content components of the at least two adaptation sets for simultaneous rendering at the client, the quality rule indicating a relationship the quality rankings of the at least two media content components have to comply with for them to be selected, and address information which is referred by the client for requesting a media content component. generating the descriptive data, and transmitting the generated descriptive data to a client, wherein the descriptive data include: at least two adaptation sets; quality ranking (HQ, MQ, LQ) of each of a plurality of media content components which are belonging to each adaptation set; a quality rule (640, 660) to select and combine at least two media content components of the at least two adaptation sets for simultaneous rendering at the client, the quality rule indicating a relationship the quality rankings of the at least two media content components have to comply with for them to be selected, and address information which is referred by the client for requesting a media content component. at least two adaptation sets; quality ranking (HQ, MQ, LQ) of each of a plurality of media content components which are belonging to each adaptation set; a quality rule (640, 660) to select and combine at least two media content components of the at least two adaptation sets for simultaneous rendering at the client, the quality rule indicating a relationship the quality rankings of the at least two media content components have to comply with for them to be selected, and address information which is referred by the client for requesting a media content component.
A height control valve assembly, comprising: a housing, wherein an air supply port, first and second ports (72, 74), and an exhaust port extend through said housing; and a valve positioned within the housing and comprising a first surface in fluid communication with the air supply port and a second surface, wherein the valve moves between a first position, in which the second surface sealingly engages a portion of the housing surrounding the first port to prevent fluid from flowing between the air supply port and the first port, and a second position, in which the second surface sealingly engages a portion of the housing surrounding the second port to prevent fluid from flowing between the air supply port and the second port, and wherein the valve is moveable from the first position in a first direction to a fill position, in which the air supply port is in fluid communication with the first port, wherein the valve is moveable from the second position in the first direction to the fill position, in which the air supply port is in fluid communication with the second port, wherein the valve is moveable from the first position in a second direction to an exhaust position, in which the first port is in fluid communication with the exhaust port, and wherein the valve is moveable from the second position in the second direction to the exhaust position, in which the second port is in fluid communication with the exhaust port. a housing, wherein an air supply port, first and second ports (72, 74), and an exhaust port extend through said housing; and a valve positioned within the housing and comprising a first surface in fluid communication with the air supply port and a second surface, wherein the valve moves between a first position, in which the second surface sealingly engages a portion of the housing surrounding the first port to prevent fluid from flowing between the air supply port and the first port, and a second position, in which the second surface sealingly engages a portion of the housing surrounding the second port to prevent fluid from flowing between the air supply port and the second port, and
A method for controlling first and second battery packs connected in parallel, the method comprising: (a) measuring (S110, S210) charge states of the first and second battery packs (110, 120); (b) adjusting (S120, S220) the SOCs of the first and second battery packs characterized in that the SOCs of the first and second battery packs are adjusted so that when a difference between the SOC of the first battery pack and the SOC of the second battery pack is less than a first threshold value, the difference between the SOC of the first battery pack and the SOC of the second battery pack becomes equal to the first threshold value; (c) adjusting (S130, S230) the SOCs of the first and second battery packs (110, 120) so that when the difference between the SOC of the first battery pack and the SOC of the second battery pack is greater than a second threshold value, the difference between the SOC of the first battery pack and the SOC of the second battery pack becomes equal to the second threshold value; and (d) pulse-charging (S140, S240) the first and second battery packs (110, 120) with a first C-rate. (a) measuring (S110, S210) charge states of the first and second battery packs (110, 120); (b) adjusting (S120, S220) the SOCs of the first and second battery packs characterized in that the SOCs of the first and second battery packs are adjusted so that when a difference between the SOC of the first battery pack and the SOC of the second battery pack is less than a first threshold value, the difference between the SOC of the first battery pack and the SOC of the second battery pack becomes equal to the first threshold value; (c) adjusting (S130, S230) the SOCs of the first and second battery packs (110, 120) so that when the difference between the SOC of the first battery pack and the SOC of the second battery pack is greater than a second threshold value, the difference between the SOC of the first battery pack and the SOC of the second battery pack becomes equal to the second threshold value; and (d) pulse-charging (S140, S240) the first and second battery packs (110, 120) with a first C-rate.
An apparatus comprising: a synthetic jet generator (100, 230); an electric load simulating an electric load of the synthetic jet generator; a power supply for providing an input signal at a variable frequency to the synthetic jet generator (100; 230) effecting a jet and to the simulated electrical load of the synthetic jet generator (100; 230); a detection circuitry for measuring a difference in signals between the synthetic jet generator (100; 230) and the simulated electrical load to effect an optimum flow of the jet, wherein the synthetic jet generator (100; 230) produces the optimum flow at a resonant frequency of the synthetic jet generator (100; 230); an adjustment circuitry for tuning the variable frequency of the power supply to maintain the jet at the optimum flow, wherein the adjustment circuitry is configured to determine a transfer function from the input signal and the difference in signals between the synthetic jet generator (100; 230) and the simulated electrical load over a frequency range, for determining control parameters for tuning the variable frequency of the power supply. a synthetic jet generator (100, 230); an electric load simulating an electric load of the synthetic jet generator; a power supply for providing an input signal at a variable frequency to the synthetic jet generator (100; 230) effecting a jet and to the simulated electrical load of the synthetic jet generator (100; 230); a detection circuitry for measuring a difference in signals between the synthetic jet generator (100; 230) and the simulated electrical load to effect an optimum flow of the jet, wherein the synthetic jet generator (100; 230) produces the optimum flow at a resonant frequency of the synthetic jet generator (100; 230); an adjustment circuitry for tuning the variable frequency of the power supply to maintain the jet at the optimum flow, wherein the adjustment circuitry is configured to determine a transfer function from the input signal and the difference in signals between the synthetic jet generator (100; 230) and the simulated electrical load over a frequency range, for determining control parameters for tuning the variable frequency of the power supply.
A method for communicating between a stylus pen and a digitizer, comprising: detecting, in the stylus pen, touch signals generated by the digitizer; analyzing, in the stylus pen, the touch signals to determine which of multiple protocols to use for communication with the digitizer, wherein the analyzing of the touch signals includes performing a correlation between the detected touch signals and signatures stored within the stylus pen, the signatures being associated with a plurality of different types of digitizers; based on the analyzing, selecting one of the multiple protocols, each protocol of the multiple protocols being associated with a different type of digitizer; and transmitting signals from the stylus pen using the selected protocol; wherein the transmitting of the signals from the stylus pen includes selecting one of a plurality of transmission circuits located on the stylus pen and transmitting data from the stylus pen over the selected transmission circuit using the selected protocol, wherein each of the plurality of transmission circuits is associated with a different digitizer and the plurality of transmission circuits are configured to generate signals having different electrical characteristics from each other that are matched to the selected protocol associated with the different type of digitizer. detecting, in the stylus pen, touch signals generated by the digitizer; analyzing, in the stylus pen, the touch signals to determine which of multiple protocols to use for communication with the digitizer, wherein the analyzing of the touch signals includes performing a correlation between the detected touch signals and signatures stored within the stylus pen, the signatures being associated with a plurality of different types of digitizers; based on the analyzing, selecting one of the multiple protocols, each protocol of the multiple protocols being associated with a different type of digitizer; and transmitting signals from the stylus pen using the selected protocol; wherein the transmitting of the signals from the stylus pen includes selecting one of a plurality of transmission circuits located on the stylus pen and transmitting data from the stylus pen over the selected transmission circuit using the selected protocol, wherein each of the plurality of transmission circuits is associated with a different digitizer and the plurality of transmission circuits are configured to generate signals having different electrical characteristics from each other that are matched to the selected protocol associated with the different type of digitizer.
A method for decoding a current picture of a video comprising: obtaining, from a Picture Parameter Set of the current picture in a bitstream, first information indicating whether a dependent slice segment may be used in the current picture; entropy decoding syntax elements of a current Largest Coding Unit in a first slice segment of the current picture; obtaining, from the bitstream, second information indicating whether the current LCU is the last LCU in the first slice segment of the current picture; storing context variables for the current LCU when the last syntax element of the current LCU is decoded if the first information indicates that a dependent slice segment may be used in the current picture and the second information indicates that the current LCU is the last LCU in the first slice segment of the current picture; determining a number of entry points of subsets that are included in the first slice segment based on third information obtained from a slice segment header of the first slice segment in the bitstream; determining positions of the entry points based on an offset which is 1 larger than a number indicated by fourth information obtained from the bitstream; decoding the current picture based on the stored context variables and the entry points. obtaining, from a Picture Parameter Set of the current picture in a bitstream, first information indicating whether a dependent slice segment may be used in the current picture; entropy decoding syntax elements of a current Largest Coding Unit in a first slice segment of the current picture; obtaining, from the bitstream, second information indicating whether the current LCU is the last LCU in the first slice segment of the current picture; storing context variables for the current LCU when the last syntax element of the current LCU is decoded if the first information indicates that a dependent slice segment may be used in the current picture and the second information indicates that the current LCU is the last LCU in the first slice segment of the current picture; determining a number of entry points of subsets that are included in the first slice segment based on third information obtained from a slice segment header of the first slice segment in the bitstream; determining positions of the entry points based on an offset which is 1 larger than a number indicated by fourth information obtained from the bitstream;
An entanglement system for forming at least one non-linear entangled seam on a composite nonwoven textile, the entanglement system comprising: a first entanglement station comprising: a conveyance system having a surface adapted to advance the composite nonwoven textile in a material flow direction; a first actuator adapted to actuate a first entanglement head (532a, 532b, 532c) coupled to the first actuator; and a first carriage coupled to the first entanglement head (532a, 532b, 532c), the first carriage adapted to move in a first direction non-parallel to the material flow direction.
A decoding device comprising: a decoding unit that decodes audio data including an object audio, the audio data being included in an encoded bit stream, and reads metadata of the object audio from an area in which arbitrary data of the encoded bit stream can be stored; an output unit that outputs the decoded audio data on a basis of the metadata; wherein the meta data comprises 3D Audio metadata, wherein the audio data comprises frames, and wherein the output unit outputs the decoded audio data according to an instruction as to whether to use, as 3D Audio meta data of a current frame, a piece of 3D Audio metadata that has been read temporally last among pieces of 3D Audio metadata read from data stream elements -DSEs- of frames before the current frame. a decoding unit that decodes audio data including an object audio, the audio data being included in an encoded bit stream, and reads metadata of the object audio from an area in which arbitrary data of the encoded bit stream can be stored; an output unit that outputs the decoded audio data on a basis of the metadata; wherein the meta data comprises 3D Audio metadata, wherein the audio data comprises frames, and wherein the output unit outputs the decoded audio data according to an instruction as to whether to use, as 3D Audio meta data of a current frame, a piece of 3D Audio metadata that has been read temporally last among pieces of 3D Audio metadata read from data stream elements -DSEs- of frames before the current frame.
A solid-state imaging apparatus comprising: a first semiconductor region of a first conductivity type provided by an epitaxial growth method on an upper face of a substrate and having an upper face; a second semiconductor region of the first conductivity type provided directly on the upper face of the first semiconductor region and in a pixel region; a third semiconductor region of a second conductivity type provided in the second semiconductor region such that a pn junction is formed between the second semiconductor region and the third semiconductor region and that the third semiconductor region serves as a charge accumulation region; and a fourth semiconductor region of the second conductivity type provided directly on the upper face of the first semiconductor region and being adjacent to the second semiconductor region, wherein an impurity concentration distribution of the second semiconductor region is formed by an ion implantation method, characterized in that the first semiconductor region is formed such that an impurity concentration of the first semiconductor region decreases as a position within the first semiconductor region goes from the upper face of the substrate to the upper face of the first semiconductor region. a first semiconductor region of a first conductivity type provided by an epitaxial growth method on an upper face of a substrate and having an upper face; a second semiconductor region of the first conductivity type provided directly on the upper face of the first semiconductor region and in a pixel region; a third semiconductor region of a second conductivity type provided in the second semiconductor region such that a pn junction is formed between the second semiconductor region and the third semiconductor region and that the third semiconductor region serves as a charge accumulation region; and a fourth semiconductor region of the second conductivity type provided directly on the upper face of the first semiconductor region and being adjacent to the second semiconductor region, wherein an impurity concentration distribution of the second semiconductor region is formed by an ion implantation method, characterized in that the first semiconductor region is formed such that an impurity concentration of the first semiconductor region decreases as a position within the first semiconductor region goes from the upper face of the substrate to the upper face of the first semiconductor region.
A method of controlling fluid flow in a fluid network system by means of a plurality of fluid machines(7-1, 9-1, 11-1, 13-1, 13-2, 15-1, 17-2), wherein the method comprises: a) determining a relation between a change in fluid machine speed and a corresponding change in fluid flow rate for each of the plurality of fluid machines (7-1, 9-1, 11-1, 13-1, 13-2, 15-1, 17-2) empirically, b) determining a minimum total fluid machine power which provides a minimum required flow rate in the fluid network system based on a constraint involving the relation between the fluid flow rate and the corresponding fluid machine speed, and c) controlling a speed of the plurality of fluid machines (7-1, 9-1, 11-1, 13-1, 13-2, 15-1, 17-2) such that the minimum total fluid machine power in the fluid network system is attained. a) determining a relation between a change in fluid machine speed and a corresponding change in fluid flow rate for each of the plurality of fluid machines (7-1, 9-1, 11-1, 13-1, 13-2, 15-1, 17-2) empirically, b) determining a minimum total fluid machine power which provides a minimum required flow rate in the fluid network system based on a constraint involving the relation between the fluid flow rate and the corresponding fluid machine speed, and c) controlling a speed of the plurality of fluid machines (7-1, 9-1, 11-1, 13-1, 13-2, 15-1, 17-2) such that the minimum total fluid machine power in the fluid network system is attained.
Method for the event-controlled retrieval of process data, by using a message broker set up for a publication/subscription service, said method comprising the following steps: a) a data retrieval component generating a request message that contains an associating subject and transmitting the request message to the message broker, and the request message being published by the message broker; b) the data retrieval component and/or the message broker setting up a subscription for response messages to be received from a data provision component that contain the associating subject of the request message; c) the data provision component receiving the request message published with the associating subject and setting up a publication/subscription service for messages that contain the associating subject of the request message; d) the data provision component providing process data requested by the request message, generating a response message containing these process data and the associating subject of the request message, transmitting the response message to the message broker; and conveying a response message published using the publication/subscription service to the data retrieval component via the message broker. a) a data retrieval component generating a request message that contains an associating subject and transmitting the request message to the message broker, and the request message being published by the message broker; b) the data retrieval component and/or the message broker setting up a subscription for response messages to be received from a data provision component that contain the associating subject of the request message; c) the data provision component receiving the request message published with the associating subject and setting up a publication/subscription service for messages that contain the associating subject of the request message; d) the data provision component providing process data requested by the request message, generating a response message containing these process data and the associating subject of the request message, transmitting the response message to the message broker; and conveying a response message published using the publication/subscription service to the data retrieval component via the message broker.