mhurhangee/ep-ind-claims huggingface dataset:
An ink jet recording method, comprising: forming an ink image by ejecting an ink onto a transfer body with an ink jet head in which a recording element substrate provided with an energy generating element generating energy to be used for ejecting the ink, a pressure chamber including the energy generating element inside, and an ejection orifice ejecting the ink are provided, wherein a circulation pump (601, 602) is disposed on an upstream side of the pressure chamber, and a negative pressure control unit for stabilizing pressure variation is disposed on a downstream side of the pressure chamber to generate an ink flow in the recording element substrate, wherein in the recording element substrate ink supplied from a supply port of the recording element substrate passes through the pressure chamber as the ink flow, and reaches the downstream side of the pressure chamber through a collection port, so that the ink in the pressure chamber is circulated between the pressure chamber and the outside of the pressure chamber; and transferring the ink image onto a recording medium by bringing the recording medium into contact with the transfer body on which the ink image is formed, wherein a viscosity of the ink is 2 mPa·s or more to 20 mPa·s or less as measured at 25°C. forming an ink image by ejecting an ink onto a transfer body with an ink jet head in which a recording element substrate provided with an energy generating element generating energy to be used for ejecting the ink, a pressure chamber including the energy generating element inside, and an ejection orifice ejecting the ink are provided, wherein a circulation pump (601, 602) is disposed on an upstream side of the pressure chamber, and a negative pressure control unit for stabilizing pressure variation is disposed on a downstream side of the pressure chamber to generate an ink flow in the recording element substrate, wherein in the recording element substrate ink supplied from a supply port of the recording element substrate passes through the pressure chamber as the ink flow, and reaches the downstream side of the pressure chamber through a collection port, so that the ink in the pressure chamber is circulated between the pressure chamber and the outside of the pressure chamber; and transferring the ink image onto a recording medium by bringing the recording medium into contact with the transfer body on which the ink image is formed, wherein a viscosity of the ink is 2 mPa·s or more to 20 mPa·s or less as measured at 25°C.
An information displaying apparatus comprising: an image input section that is adapted to receive, as input, a captured real-world image; a distance acquisition section that is adapted to measure and acquire, for each of a plurality of objects shown in the input captured real-world image, a distance in the real world between the object and a viewpoint of the captured real-world image; an information output control section that is adapted to control, for each of the objects, a piece of information output from the object superimposition section, and an object superimposition section that is adapted to output an image in which pieces of information relating to the objects are superimposed on the captured real-world image; characterized in that there are ranges for the acquired distance for each of the objects such that if the acquired distance to the object is in a closer range the respective piece of information is of a greater information amount than if the acquired distance to the object is in a further range, wherein the pieces of information relating to different ranges of the acquired distance for the object are different and are stored in different cells of an object information database, the information amount being level of detail of information. an image input section that is adapted to receive, as input, a captured real-world image; a distance acquisition section that is adapted to measure and acquire, for each of a plurality of objects shown in the input captured real-world image, a distance in the real world between the object and a viewpoint of the captured real-world image; an information output control section that is adapted to control, for each of the objects, a piece of information output from the object superimposition section, and an object superimposition section that is adapted to output an image in which pieces of information relating to the objects are superimposed on the captured real-world image; there are ranges for the acquired distance for each of the objects such that if the acquired distance to the object is in a closer range the respective piece of information is of a greater information amount than if the acquired distance to the object is in a further range, wherein the pieces of information relating to different ranges of the acquired distance for the object are different and are stored in different cells of an object information database, the information amount being level of detail of information.
An aqueous heat-curable binder composition comprising: one or more reducing sugars; one or more amino acids; and one or more complex compounds of metal cation having oxidation number of 2 or higher in the form of ammonium salt. one or more reducing sugars; one or more amino acids; and one or more complex compounds of metal cation having oxidation number of 2 or higher in the form of ammonium salt.
A light emitting diode, comprising: a first transparent electrode layer; a light emitting layer on the first transparent electrode layer; a reflective electrode layer on a surface of the light emitting layer opposite from the first transparent electrode layer, the reflective electrode layer comprising a transmission hole; and a second transparent electrode layer covering and/or filling the transmission hole; wherein the transmission hole is configured to transmit light emitted from the light emitting layer to transmit through the second transparent electrode layer, the light emitting diode further comprises: a photosensitive sensor on a side of the second transparent electrode layer opposite from the first transparent electrode layer and configured to sense changes of intensity of light transmitted from the transmission hole; the light emitting diode being characterised by a light reflective element on a side of the reflective electrode layer away from the first transparent electrode layer and configured to reflect light into the photosensitive sensor, wherein an orthographic projection of the light reflective element on the first transparent electrode layer at least partially overlaps an orthographic projection of the transmission hole on the first transparent electrode layer. a first transparent electrode layer; a light emitting layer on the first transparent electrode layer; a reflective electrode layer on a surface of the light emitting layer opposite from the first transparent electrode layer, the reflective electrode layer comprising a transmission hole; and a second transparent electrode layer covering and/or filling the transmission hole; wherein the transmission hole is configured to transmit light emitted from the light emitting layer to transmit through the second transparent electrode layer, the light emitting diode further comprises: a photosensitive sensor on a side of the second transparent electrode layer opposite from the first transparent electrode layer and configured to sense changes of intensity of light transmitted from the transmission hole; a light reflective element on a side of the reflective electrode layer away from the first transparent electrode layer and configured to reflect light into the photosensitive sensor, wherein an orthographic projection of the light reflective element on the first transparent electrode layer at least partially overlaps an orthographic projection of the transmission hole on the first transparent electrode layer.
A kingpin for mounting to a semitrailer, comprising: - a pin body detachably engageable with a towing vehicle-side semitrailer coupling, - a sensor device (60; 160; 260) disposed at the pin body and configured to detect a driving state of the semitrailer, wherein the sensor device (60; 160; 260) comprises at least one sensor unit (62, 64), characterized in that: - at least one first bore (52, 54) extends in the pin body from the lateral surface of the pin body essentially radially inward, and - at least one second bore extends in the pin body along a longitudinal axis of the pin body and is connected to the at least one first bore (52, 54), wherein the at least one sensor unit (62, 64) comprises: - a contact element (70, 72) movably disposed in the first bore (52, 54) and configured to be pushed into the pin body by the towing vehicle-side semitrailer coupling at specific driving states, and - a sensor mechanism disposed in the second bore in the pin body and configured to generate a signal indicating a specific driving state of the semitrailer when a force applied to the sensor mechanism by the contact element (70, 72) exceeds a predetermined force. - a pin body detachably engageable with a towing vehicle-side semitrailer coupling, - a sensor device (60; 160; 260) disposed at the pin body and configured to detect a driving state of the semitrailer, wherein the sensor device (60; 160; 260) comprises at least one sensor unit (62, 64), - at least one first bore (52, 54) extends in the pin body from the lateral surface of the pin body essentially radially inward, and - at least one second bore extends in the pin body along a longitudinal axis of the pin body and is connected to the at least one first bore (52, 54), - a contact element (70, 72) movably disposed in the first bore (52, 54) and configured to be pushed into the pin body by the towing vehicle-side semitrailer coupling at specific driving states, and - a sensor mechanism disposed in the second bore in the pin body and configured to generate a signal indicating a specific driving state of the semitrailer when a force applied to the sensor mechanism by the contact element (70, 72) exceeds a predetermined force.
A method for performing channel state information, CSI, reporting performed by a user equipment, UE, in a wireless communication system, the method comprising: determining information bits of CSI reports #1 to #N configured to be reported, where N is a positive integer; and performing the CSI reporting based on the information bits of the CSI reports #1 to #N, wherein at least one CSI report among the CSI reports #1 to #N includes wideband CSI, and wherein a layer indicator, LI, is included in the wideband CSI of the at least one CSI report. determining information bits of CSI reports #1 to #N configured to be reported, where N is a positive integer; and performing the CSI reporting based on the information bits of the CSI reports #1 to #N, wherein at least one CSI report among the CSI reports #1 to #N includes wideband CSI, and wherein a layer indicator, LI, is included in the wideband CSI of the at least one CSI report.
An image processing apparatus comprising: a first imaging means (110L, 110R) attached to a side portion of a vehicle and configured to provide a first image obtained by capturing a rear of the side portion including a vehicle body region; a second imaging means attached to a rear portion of the vehicle and configured to provide a second image including a rear of the vehicle captured at a first angle of view; a third imaging means attached to the rear portion of the vehicle and configured to provide a third image including the rear of the vehicle captured at a second angle of view narrower than the first angle of view; a synthesizing means configured to synthesize the second image and the third image corresponding to the vehicle body region of the first image in the vehicle body region of the first image; wherein when a blind spot region of the third image satisfies a predetermined condition, which is a condition for determining whether or not a blind spot region of the third image is complemented by the second image, the synthesizing means is configured to complement the blind spot region of the third image by the second image, and when the blind spot region of the third image does not satisfy the predetermined condition, the synthesizing means is configured to synthesize only the second image in the vehicle body region of the first image without complementing the blind spot region of the third image by the second image. a first imaging means (110L, 110R) attached to a side portion of a vehicle and configured to provide a first image obtained by capturing a rear of the side portion including a vehicle body region; a second imaging means attached to a rear portion of the vehicle and configured to provide a second image including a rear of the vehicle captured at a first angle of view; a third imaging means attached to the rear portion of the vehicle and configured to provide a third image including the rear of the vehicle captured at a second angle of view narrower than the first angle of view; a synthesizing means configured to synthesize the second image and the third image corresponding to the vehicle body region of the first image in the vehicle body region of the first image; wherein when a blind spot region of the third image satisfies a predetermined condition, which is a condition for determining whether or not a blind spot region of the third image is complemented by the second image, the synthesizing means is configured to complement the blind spot region of the third image by the second image, and when the blind spot region of the third image does not satisfy the predetermined condition, the synthesizing means is configured to synthesize only the second image in the vehicle body region of the first image without complementing the blind spot region of the third image by the second image.
A microphone having a conductive housing having a sound aperture, comprising: a dust-proof section that is disposed in said housing and covers said sound aperture, wherein said dust-proof section has a porous region which has a plurality of pores at least in a region corresponding to said sound aperture, and said dust-proof section further has a nonporous region, and the porous region and nonporous region are formed in a plate. a dust-proof section that is disposed in said housing and covers said sound aperture, wherein said dust-proof section has a porous region which has a plurality of pores at least in a region corresponding to said sound aperture, and said dust-proof section further has a nonporous region, and the porous region and nonporous region are formed in a plate.
A complex-phase steel sheet having excellent formability, the complex-phase steel sheet comprising: by wt %, 0.01% to 0.08% of carbon, 1.5% to 2.5% of manganese (Mn), 1.0% or less excluding 0% of chromium (Cr), 1.0% or less excluding 0% of silicon (Si), 0.1% or less excluding 0% of phosphorus, 0.01% or less excluding 0% of sulfur, 0.01% or less excluding 0% of nitrogen, 0.02% to 0.1% of acid soluble aluminum (sol.Al), 0.1% or less excluding 0% of molybdenum (Mo), 0.003% or less excluding 0% of boron, and a balance of iron (Fe) and inevitable impurities, the sum (Mn+Cr) of wt % of manganese (Mn) and chromium (Cr) satisfying 1.5% to 3.5%, wherein the complex-phase steel sheet includes ferrite as a main phase, a fraction of fine martensite with an average particle diameter of less than 1 μm at a 1/4t point, based on a total thickness (t) of the complex-phase steel sheet is from 1% to 8%, an occupancy ratio (M%) of martensite having an average particle diameter of less than 1 μm and present in grain boundaries of the ferrite defined as the following Formula 1, is 90% or higher, and an area ratio (B%) of bainite of an overall secondary phase microstructure, defined as the following Formula 2, is 3% or lower, M % = M gb / Mgb + M in × 100, where M gb refers to the amount of martensite present in the grain boundaries of the ferrite, and M in refers to the amount of martensite present in crystal grains of the ferrite, and B % = BA / MA + BA × 100, where BA refers to a bainite area, and MA refers to a martensite area. by wt %, 0.01% to 0.08% of carbon, 1.5% to 2.5% of manganese (Mn), 1.0% or less excluding 0% of chromium (Cr), 1.0% or less excluding 0% of silicon (Si), 0.1% or less excluding 0% of phosphorus, 0.01% or less excluding 0% of sulfur, 0.01% or less excluding 0% of nitrogen, 0.02% to 0.1% of acid soluble aluminum (sol.Al), 0.1% or less excluding 0% of molybdenum (Mo), 0.003% or less excluding 0% of boron, and a balance of iron (Fe) and inevitable impurities, the sum (Mn+Cr) of wt % of manganese (Mn) and chromium (Cr) satisfying 1.5% to 3.5%, wherein the complex-phase steel sheet includes ferrite as a main phase, a fraction of fine martensite with an average particle diameter of less than 1 μm at a 1/4t point, based on a total thickness (t) of the complex-phase steel sheet is from 1% to 8%, an occupancy ratio (M%) of martensite having an average particle diameter of less than 1 μm and present in grain boundaries of the ferrite defined as the following Formula 1, is 90% or higher, and an area ratio (B%) of bainite of an overall secondary phase microstructure, defined as the following Formula 2, is 3% or lower, M % = M gb / Mgb + M in × 100, where M gb refers to the amount of martensite present in the grain boundaries of the ferrite, and M in refers to the amount of martensite present in crystal grains of the ferrite, and B % = BA / MA + BA × 100, where BA refers to a bainite area, and MA refers to a martensite area.
A method of determining a Hybrid Automatic Repeat reQuest acknowledgement codebook, performed by a terminal, wherein the method comprises: determining,, a Hybrid Automatic Repeat reQuest, HARQ,-acknowledgement, ACK, codebook in a first slot according to a target offset set, when a HARQ-ACK is transmitted in the first slot; wherein the HARQ-ACK is a HARQ-ACK for a Physical Downlink Shared Channel, PDSCH, transmitted in a second slot or a Semi-Persistently Scheduled, SPS, PDSCH release transmitted in a second slot, the target offset set is represented by W, W=K1+TA_offset, K1 is a set of timing values indicating an interval between a slot of the PDSCH or the SPS PDSCH release and a slot of a corresponding HARQ-ACK, TA_offset is a value related to a Timing Advance TA configured by a signaling or calculated in a predetermined manner, and n_U=n+k+TA_offset, k is one of values in the set of K1, n_U is an index of the first slot, n is an index of the second slot. determining,, a Hybrid Automatic Repeat reQuest, HARQ,-acknowledgement, ACK, codebook in a first slot according to a target offset set, when a HARQ-ACK is transmitted in the first slot; wherein the HARQ-ACK is a HARQ-ACK for a Physical Downlink Shared Channel, PDSCH, transmitted in a second slot or a Semi-Persistently Scheduled, SPS, PDSCH release transmitted in a second slot, the target offset set is represented by W, W=K1+TA_offset, K1 is a set of timing values indicating an interval between a slot of the PDSCH or the SPS PDSCH release and a slot of a corresponding HARQ-ACK, TA_offset is a value related to a Timing Advance TA configured by a signaling or calculated in a predetermined manner, and n_U=n+k+TA_offset, k is one of values in the set of K1, n_U is an index of the first slot, n is an index of the second slot.
A solar tracking concentrator comprising: an east-west tracking means for tracking the movement of the sun in the east-west direction from the upper part of a base frame; a support disposed vertically on the east-west tracking means; a concentrator-type parabola system disposed so that a shaft thereof is supported by the support, and having a second parabola disposed behind the focal point of a first parabola having a wide area so that high-density light is concentrated in the center of the first parabola; and an altitude tracking means disposed on the support so as to have the concentrator-type parabola system tracking the solar altitude, characterized in that the solar tracking concentrator further comprises: a prism case which is disposed so as to cause a shaft thereof to be supported by the support such that the prism case is positioned in the rear of a light transport hole formed in the center of the first parabola of the concentrator-type parabola system, and so as to move angularly by means of the driving power of an altitude tracking motor of the altitude tracking means; and a light guidance means composed of a total-reflection rectangular prism coupled to the prism case, wherein the light guidance means rotates half as much as the rotational angle of the altitude tracking means, thereby allowing the high-density light to be always guided and provided to the same location, and wherein the rectangular portion of the total-reflection rectangular prism is disposed toward the concentrator-type parabola system. an east-west tracking means for tracking the movement of the sun in the east-west direction from the upper part of a base frame; a support disposed vertically on the east-west tracking means; a concentrator-type parabola system disposed so that a shaft thereof is supported by the support, and having a second parabola disposed behind the focal point of a first parabola having a wide area so that high-density light is concentrated in the center of the first parabola; and an altitude tracking means disposed on the support so as to have the concentrator-type parabola system tracking the solar altitude, a prism case which is disposed so as to cause a shaft thereof to be supported by the support such that the prism case is positioned in the rear of a light transport hole formed in the center of the first parabola of the concentrator-type parabola system, and so as to move angularly by means of the driving power of an altitude tracking motor of the altitude tracking means; and a light guidance means composed of a total-reflection rectangular prism coupled to the prism case, wherein the light guidance means rotates half as much as the rotational angle of the altitude tracking means, thereby allowing the high-density light to be always guided and provided to the same location, and wherein the rectangular portion of the total-reflection rectangular prism is disposed toward the concentrator-type parabola system.