mhurhangee/ep-ind-claims huggingface dataset:
A laminated film comprising at least two films sequentially stacked and bonded to each other, wherein each of the films is each independently a gastric film or an enteric film. wherein the gastric film comprises at least one selected from a water soluble entrapped material and a poorly water soluble entrapped material, and the enteric film comprises a poorly water soluble entrapped material, wherein the gastric film is a film that may dissolve at a pH of gastric juice of pH of about 1.2 and the enteric film is a film that is insoluble in a pH of gastric juice, but dissolves at a pH of enteric juice of pH of about 6.8, and wherein the each entrapped material comprises at least one selected from an active pharmaceutical ingredient and a functional food ingredient, wherein the functional food ingredient comprises a curcumin, a silymarin, a resveratrol, or a combination thereof.
A tensioning system, comprising: a tensioning cable (222, 322, 422); and a knitted component (204, 304, 404) having a knit element and at least three inlaid strands (260, 360) that are inlaid within the knit element, wherein the at least three inlaid strands (260, 360) each have an exposed portion that is exposed on a surface of the knit element,wherein a channel (224, 324) is defined between the exposed portions of the at least three inlaid strands (260, 360) and the surface of the knit element, and wherein the tensioning cable (222, 322, 422) extends through the channel (224, 324) wherein the tensioning system is characterized in that the tensioning cable (222, 322, 422) extends through the channel (224, 324) beneath the at least three exposed portions, wherein the at least three exposed portions are each straight and extend parallel to each other. a tensioning cable (222, 322, 422); and a knitted component (204, 304, 404) having a knit element and at least three inlaid strands (260, 360) that are inlaid within the knit element, wherein the at least three inlaid strands (260, 360) each have an exposed portion that is exposed on a surface of the knit element,wherein a channel (224, 324) is defined between the exposed portions of the at least three inlaid strands (260, 360) and the surface of the knit element, and wherein the tensioning cable (222, 322, 422) extends through the channel (224, 324) wherein the tensioning system is characterized in that the tensioning cable (222, 322, 422) extends through the channel (224, 324) beneath the at least three exposed portions, wherein the at least three exposed portions are each straight and extend parallel to each other.
A self-adjusting liner assembly for a welding torch comprising: an elongated tubular main body having forward and rearward ends; an elongated tubular retainer including a shoulder mountable in said main body; an elongated tubular piston including a shoulder, said piston cooperating with said retainer in a telescoping relationship in said main body, and a resilient member disposed in said main body enveloping a portion of said retainer and said piston, said resilient member urging said shoulders away from each other and said tubular piston toward the forward end of said main body. an elongated tubular main body having forward and rearward ends; an elongated tubular retainer including a shoulder mountable in said main body; an elongated tubular piston including a shoulder, said piston cooperating with said retainer in a telescoping relationship in said main body, and a resilient member disposed in said main body enveloping a portion of said retainer and said piston, said resilient member urging said shoulders away from each other and said tubular piston toward the forward end of said main body.
A base station comprising: a transmit path circuitry configured to: transmit to a subscriber station an indicator of whether the subscriber station is configured with precoding matrix indicator / rank indicator, PMI/RI, reporting, and perform a same precoding to all physical resource block within a resource block group, if the precoding matrix indicator / rank indicator, PMI/RI, reporting is configured according to said indicator and if the subscriber station is configured for a predetermined transmission mode; and a receive path circuitry configured to receive feedback based on the indicator from the subscriber station. transmit to a subscriber station an indicator of whether the subscriber station is configured with precoding matrix indicator / rank indicator, PMI/RI, reporting, and perform a same precoding to all physical resource block within a resource block group, if the precoding matrix indicator / rank indicator, PMI/RI, reporting is configured according to said indicator and if the subscriber station is configured for a predetermined transmission mode; and a receive path circuitry configured to receive feedback based on the indicator from the subscriber station.
An intraoral x-ray system comprising: an intraoral sensor having an array of pixels, the array of pixels having a plurality of pixel clusters, each of the pixels generating an electrical signal correlated to x-ray radiation that impinges that pixel; and an electronic control unit connected to the array of pixels to receive electric signals from the array of pixels, and to read each pixel cluster, the electronic control unit configured to generate a combined signal for each pixel cluster and to initiate capture of an image generated with information from each of the pixels in the array of pixels that is exposed to radiation, when at least one of the combined signals exceeds a predetermined threshold. an intraoral sensor having an array of pixels, the array of pixels having a plurality of pixel clusters, each of the pixels generating an electrical signal correlated to x-ray radiation that impinges that pixel; and an electronic control unit connected to the array of pixels to receive electric signals from the array of pixels, and to read each pixel cluster, the electronic control unit configured to generate a combined signal for each pixel cluster and to initiate capture of an image generated with information from each of the pixels in the array of pixels that is exposed to radiation, when at least one of the combined signals exceeds a predetermined threshold.
A method for analyzing communication of Logical Nodes LNs of a plurality of Intelligent Electronic Devices IEDs in an operating Process Control PC system for controlling an industrial process or in an operating Substation Automation SA system for controlling an electric power substation, wherein the PC or SA system includes a plurality of operational aspects related to the operation of the controlled process or automated substation, and wherein sender LNs of the plurality of IEDs are configured to send data packets to predetermined receiver LNs of the plurality of IEDs via a communication network of the system, the method comprising the steps of: - analyzing data packets transmitted via the communication network and identifying data packets including data indicative of events of the PC or SA system including commands directed to the process or substation and status changes in the process or substation; - determining, for each identified data packet, the sender LN and the receiver LN; - retrieving, from a formal configuration representation of the PC or SA system, for each sender LN and for each receiver LN an operational aspect; - generating a time sorted graphical representation of the events and the sender and receiver LNs of the corresponding identified packets, including grouping the LNs according to the operational aspects retrieved. - analyzing data packets transmitted via the communication network and identifying data packets including data indicative of events of the PC or SA system including commands directed to the process or substation and status changes in the process or substation; - determining, for each identified data packet, the sender LN and the receiver LN; - retrieving, from a formal configuration representation of the PC or SA system, for each sender LN and for each receiver LN an operational aspect; - generating a time sorted graphical representation of the events and the sender and receiver LNs of the corresponding identified packets, including grouping the LNs according to the operational aspects retrieved.
A depth camera assembly comprising: a structured light generator configured to illuminate a local area with a structured light pattern in accordance with emission instructions, the structured light generator comprising: an illumination source configured to emit optical beams, a programmable diffractive optical element (PDOE) that generates, based in part on the emission instructions, diffracted scanning beams from the optical beams, the PDOE functions as a dynamic diffraction grating that dynamically adjusts an angle of diffraction of the optical beams to generate the diffracted scanning beams of different patterns over different time instants, and a projection assembly configured to project the diffracted scanning beams as the structured light pattern into the local area, the structured light pattern being dynamically adjustable based on the angle of diffraction of the PDOE; an imaging device configured to capture one or more images of at least a portion of the structured light pattern reflected from one or more objects in the local area; and a controller configured to: generate the emission instructions, provide the emission instructions to the structured light generator, and determine depth information for the one or more objects based in part on the captured one or more images. an illumination source configured to emit optical beams, a programmable diffractive optical element (PDOE) that generates, based in part on the emission instructions, diffracted scanning beams from the optical beams, the PDOE functions as a dynamic diffraction grating that dynamically adjusts an angle of diffraction of the optical beams to generate the diffracted scanning beams of different patterns over different time instants, and a projection assembly configured to project the diffracted scanning beams as the structured light pattern into the local area, the structured light pattern being dynamically adjustable based on the angle of diffraction of the PDOE; an imaging device configured to capture one or more images of at least a portion of the structured light pattern reflected from one or more objects in the local area; and a controller configured to: generate the emission instructions, provide the emission instructions to the structured light generator, and determine depth information for the one or more objects based in part on the captured one or more images. generate the emission instructions, provide the emission instructions to the structured light generator, and determine depth information for the one or more objects based in part on the captured one or more images.
An earphone case for storing a wireless earphone body, comprising a case body and a case cover, a top face and a side face of the case body each having an accommodating groove, the accommodating groove in the top face being configured to be fitted with an ear bud of the wireless earphone body, the accommodating groove in the side face being configured to be fitted with a stem of the wireless earphone body, the case body being provided with a magnetic member for attracting the wireless earphone body, characterized in that the case cover is flippably connected to the case body, and the case cover is configured to be flipped between a closed position and an open position, wherein, in the open position, an upper side of the accommodating groove in the top face and a front side of the accommodating groove in the side face are both open, and, in the closed position, the case cover covers the upper side of the accommodating groove in the top face and the front side of the accommodating groove in the side face. characterized in that the case cover is flippably connected to the case body, and the case cover is configured to be flipped between a closed position and an open position, wherein, in the open position, an upper side of the accommodating groove in the top face and a front side of the accommodating groove in the side face are both open, and, in the closed position, the case cover covers the upper side of the accommodating groove in the top face and the front side of the accommodating groove in the side face.
An aircraft, comprising: an airframe; an engine mounted to the airframe; and an engine inlet for receiving an ambient airflow and providing the ambient airflow to the engine, wherein an amount of airflow provided to the engine inlet is controllable, characterized in further comprising a deflector mounted to the airframe upstream from the engine inlet, the deflector being operable to control the amount of airflow provided to the engine inlet, wherein the deflector is configured to move between a first position and a second position along the longitudinal axis of the aircraft. an airframe; an engine mounted to the airframe; and an engine inlet for receiving an ambient airflow and providing the ambient airflow to the engine, wherein an amount of airflow provided to the engine inlet is controllable, characterized in further comprising a deflector mounted to the airframe upstream from the engine inlet, the deflector being operable to control the amount of airflow provided to the engine inlet, wherein the deflector is configured to move between a first position and a second position along the longitudinal axis of the aircraft.
A locking retainer comprising: at least three wedge members (42a, 42b, 42c) movably linked to each other and disposed in longitudinal sequence along a longitudinal axis; the at least three wedge members comprising a middle wedge member disposed between the other two of the three wedge members (42a, 42c); wherein the locking retainer is movable between a first configuration having a relatively smaller height and a second configuration having a relatively larger height by moving the wedge members longitudinally such that a longitudinal distance between a first wedge member and a last wedge member of the sequence becomes smaller without the wedge members being longitudinally displaced along a common internal longitudinal element; wherein all portions of the locking retainer that the middle wedge member is longitudinally moveable relative to do not extend through a theoretical plane disposed at a longitudinal midpoint of the middle wedge member and oriented normal to the longitudinal axis. at least three wedge members (42a, 42b, 42c) movably linked to each other and disposed in longitudinal sequence along a longitudinal axis; the at least three wedge members comprising a middle wedge member disposed between the other two of the three wedge members (42a, 42c); wherein the locking retainer is movable between a first configuration having a relatively smaller height and a second configuration having a relatively larger height by moving the wedge members longitudinally such that a longitudinal distance between a first wedge member and a last wedge member of the sequence becomes smaller without the wedge members being longitudinally displaced along a common internal longitudinal element; wherein all portions of the locking retainer that the middle wedge member is longitudinally moveable relative to do not extend through a theoretical plane disposed at a longitudinal midpoint of the middle wedge member and oriented normal to the longitudinal axis.
An infrared thermometer capable of switching a forehead temperature measurement mode and an ear temperature measurement mode, comprising an infrared thermometer body and a forehead temperature measurement cover; wherein one end of the infrared thermometer body has a measuring probe, the infrared thermometer body includes a printed circuit board therein, the measuring probe is connected to the printed circuit board, the forehead temperature measurement cover is detachably connected to the infrared thermometer body to selectively cover or expose the measuring probe for switching the forehead temperature measurement mode and the ear temperature measurement mode; the printed circuit board is connected with a first electrical contact; characterized in that: the forehead temperature measurement cover has a thermistor and a second electrical contact connected to the thermistor; and when the forehead temperature measurement cover is connected to the infrared thermometer body, the second electrical contact and the first electrical contact form an electrical connection so that the thermistor is connected to the printed circuit board, and the thermometer switches to a forehead temperature measurement mode once the thermistor is connected to the printed circuit board. one end of the infrared thermometer body has a measuring probe, the infrared thermometer body includes a printed circuit board therein, the measuring probe is connected to the printed circuit board, the forehead temperature measurement cover is detachably connected to the infrared thermometer body to selectively cover or expose the measuring probe for switching the forehead temperature measurement mode and the ear temperature measurement mode; the printed circuit board is connected with a first electrical contact; characterized in that: the forehead temperature measurement cover has a thermistor and a second electrical contact connected to the thermistor; and when the forehead temperature measurement cover is connected to the infrared thermometer body, the second electrical contact and the first electrical contact form an electrical connection so that the thermistor is connected to the printed circuit board, and the thermometer switches to a forehead temperature measurement mode once the thermistor is connected to the printed circuit board. the forehead temperature measurement cover has a thermistor and a second electrical contact connected to the thermistor; and when the forehead temperature measurement cover is connected to the infrared thermometer body, the second electrical contact and the first electrical contact form an electrical connection so that the thermistor is connected to the printed circuit board, and the thermometer switches to a forehead temperature measurement mode once the thermistor is connected to the printed circuit board.
A method, executed by one or more processors of a controller (100; 1200), comprising: receiving capacitance values provided by a proximity sensor of a handle of the controller (100; 1200), wherein the proximity sensor has capacitive pads, at least some of which are arranged into columns and rows, and the capacitive values are provided by the capacitive pads when one or more objects are in proximity to the handle of the controller; determining a first score for a first controller configuration based at least in part on the capacitance values; determining a second score for a second controller configuration based at least in part on the capacitance values; ranking the first score and the second score; selecting the first controller configuration based on the first score having a higher ranking than the second score; and configuring the controller according to the selected first controller configuration. receiving capacitance values provided by a proximity sensor of a handle of the controller (100; 1200), wherein the proximity sensor has capacitive pads, at least some of which are arranged into columns and rows, and the capacitive values are provided by the capacitive pads when one or more objects are in proximity to the handle of the controller; determining a first score for a first controller configuration based at least in part on the capacitance values; determining a second score for a second controller configuration based at least in part on the capacitance values; ranking the first score and the second score; selecting the first controller configuration based on the first score having a higher ranking than the second score; and configuring the controller according to the selected first controller configuration.
A warehousing apparatus, comprising: a temporary storage layer board, wherein the temporary storage layer board is used to provide a temporary storage position; a plurality of shelves, wherein each of the shelves comprises at least one storage layer board and a plurality of columns arranged at an interval in a horizontal direction, the storage layer board is used to provide a storage position, and the storage layer board is arranged at an interval with the temporary storage layer board in a vertical direction through the columns; a first robot channel for a first robot to drive, wherein the first robot is used to access a cargo on the temporary storage layer board; and a second robot channel for a second robot to drive, wherein the second robot is used to transfer the cargo between the temporary storage layer board and the storage layer board, wherein the columns are arranged on a periphery of the storage layer board, wherein the first robot channel comprises a first driving channel, characterized in that the first driving channel is disposed between the temporary storage layer board and the columns, wherein the temporary storage layer board is provided with furcal grooves, and each of the furcal grooves is used to cooperate with a furcal arm of the first robot. a temporary storage layer board, wherein the temporary storage layer board is used to provide a temporary storage position; a plurality of shelves, wherein each of the shelves comprises at least one storage layer board and a plurality of columns arranged at an interval in a horizontal direction, the storage layer board is used to provide a storage position, and the storage layer board is arranged at an interval with the temporary storage layer board in a vertical direction through the columns; a first robot channel for a first robot to drive, wherein the first robot is used to access a cargo on the temporary storage layer board; and a second robot channel for a second robot to drive, wherein the second robot is used to transfer the cargo between the temporary storage layer board and the storage layer board, wherein the columns are arranged on a periphery of the storage layer board, wherein the first robot channel comprises a first driving channel, characterized in that the first driving channel is disposed between the temporary storage layer board and the columns, wherein the temporary storage layer board is provided with furcal grooves, and each of the furcal grooves is used to cooperate with a furcal arm of the first robot.