Abstract: A method for monitoring an object is provided. The method includes the steps of: in response to information on a behavior of a domestic animal being estimated from sensor data measured by a sensor for the domestic animal using a machine learning-based behavior recognition model, estimating health status of the domestic animal with reference to the information on the behavior of the domestic animal and a health criterion for the domestic animal; and determining first breeding information on the domestic animal to be provided to a user on the basis of the health status.

Abstract: A method for replicating a holographic optical element and a holographic optical element replicated thereby are provided. The holographic optical element is larger than a master. The master has a holographic grating pattern generated on the master by interference of the reflected, diffracted or transmitted beam generated by irradiating the master having a specific diffraction grating pattern formed thereon with a laser beam.

Abstract: A light-emitting plasma lamp bulb for solar ultraviolet simulation includes a bulb cover having a spherical shape or a rod shape through which ultraviolet rays are transmittable, discharge gas contained in the bulb cover, and a first light-emitting material and a second light-emitting material, wherein the first light-emitting material includes at least one of mercury (Hg) and mercury iodide (HgI2), and the second light-emitting material includes sulfur (S8), wherein light emitted from the bulb has a maximum optical power intensity in a range of 395 to 455 nm which is an ultraviolet-visible boundary region, wherein, when compared using a same ultraviolet dose in an ultraviolet region of 290 to 400 nm, an integrated intensity of a visible and infrared region of 400 to 850 nm is equal to or less than ? of an integrated intensity of a visible and infrared region of a standard solar spectrum (ASTM G173, AM 1.5G).

Abstract: A distance measuring apparatus includes: a digital-to-time converter (DTC) configured to receive a clock signal and output a pulse corresponding to a provided code; an in-phase (I) template generation part configured to be triggered by the pulse output from the DTC to generate an I template impulse signal; a quadrature (Q) template generation part configured to be triggered by the pulse output from the DTC to generate a Q template impulse signal; and an I correlator configured to perform demodulation with the signal reflecting off the target and the I template impulse signal, and a Q correlator configured to perform demodulation with the signal reflecting off the target and the Q template impulse signal, wherein the distance measuring apparatus converts a result of demodulation into a digital code to measure the distance to the target.

Abstract: The present disclosure relates to a display device capable of improving image processing capability by varying a spatial processing resolution of a bit depth of data according to change in a display area, and a display device according to an embodiment includes: a panel including a display area composed of a plurality of pixels and having a variable physical shape; a panel driver for driving the panel; and a timing controller for varying the area of a first display area in which an image is displayed in the display area according to change in the shape of the panel when the change in the shape of the panel is detected through a sensor and varying a distance between pixels on which compensation processing is performed in pixels corresponding to the first display area in response to the varied area of the first display area.

Abstract: The present disclosure relates to a display device capable of reducing a stress cumulative deviation and preventing image sticking with respect to a boundary between first and second display areas separately driven according to the shape and use environment of a display panel, and a display device may include: a panel displaying an image through a display area composed of a plurality of pixels and having a variable shape; a panel driver for driving the panel; and an image processor for dividing the display area into a first display area and a second display area when the shape of the panel is changed, determining a boundary neighboring region including a first boundary neighboring region and a second boundary neighboring region, and modulating data corresponding to the boundary neighboring region using a result of analysis of an image corresponding to the boundary neighboring region.

Abstract: The present disclosure relates to a display device capable of reducing a stress cumulative deviation and preventing image sticking with respect to a boundary between first and second display areas separately driven according to the shape and use environment of a display panel, and a display device may include: a panel displaying an image through a display area composed of a plurality of pixels and having a variable shape; a panel driver for driving the panel; and an image processor for dividing the display area into a first display area and a second display area when the shape of the panel is changed, determining a boundary neighboring region including a first boundary neighboring region and a second boundary neighboring region, and modulating data corresponding to the boundary neighboring region using a result of analysis of an image corresponding to the boundary neighboring region.

Abstract: The present disclosure relates to a display device capable of improving image processing capability by varying a spatial processing resolution of a bit depth of data according to change in a display area, and a display device according to an embodiment includes: a panel including a display area composed of a plurality of pixels and having a variable physical shape; a panel driver for driving the panel; and a timing controller for varying the area of a first display area in which an image is displayed in the display area according to change in the shape of the panel when the change in the shape of the panel is detected through a sensor and varying a distance between pixels on which compensation processing is performed in pixels corresponding to the first display area in response to the varied area of the first display area.

Abstract: Disclosed is a high strength and low shrinkage polyester yarn, which has tenacity of 7.4 g/d or higher, elongation at break of 19 to 26%, shrinkage percentage of 2% or lower, and respective thermal-stress peaks of 3×10−2 to 7.5×10−2 g/d and 8.0×10−2 to 10.5×10−2 g/d at temperature ranges of 100 to 140° C. and 230 to 240° C., and process for its preparation. The high strength and low shrinkage polyester yarn is advantageous in that it has desirable resistance to external load and excellent dimensional stability, and is very useful as an industrial yarn with uniform shrinkage and excellent dimensional stability during a post-process for application to tarpaulin and truck covers.

Abstract: Disclosed is a high strength and low shrinkage polyester yarn, which has tenacity of 7.4 g/d or higher, elongation at break of 19 to 26%, shrinkage percentage of 2% or lower, and respective thermal-stress peaks of 3×10−2 to 7.5×10−2 g/d and 8.0×10−2 to 10.5×10−2 g/d at temperature ranges of 100 to 140° C. and 230 to 240° C., and process for its preparation. The high strength and low shrinkage polyester yarn is advantageous in that it has desirable resistance to external load and excellent dimensional stability, and is very useful as an industrial yarn with uniform shrinkage and excellent dimensional stability during a post-process for application to tarpaulin and truck covers.

Abstract: Disclosed is a high strength and low shrinkage polyester yarn, which has tenacity of 7.4 g/d or higher, elongation at break of 19 to 26%, shrinkage percentage of 2% or lower, and respective thermal-stress peaks of 3×10−2 to 7.5×10−2 g/d and 8.0×10−2 to 10.5×10−2 g/d at temperature ranges of 100 to 140° C. and 230 to 240° C., and process for its preparation. The high strength and low shrinkage polyester yarn is advantageous in that it has desirable resistance to external load and excellent dimensional stability, and is very useful as an industrial yarn with uniform shrinkage and excellent dimensional stability during a post-process for application to tarpaulin and truck covers.