41results about How to "Not blurred" patented technology

Method for providing virtual light and a processing system thereof are provided. The method includes: implementing a virtual light source on a mobile device; receiving a user input, wherein the user input instructs the mobile device to capture 2D output images of current views of a plurality of device sensors in real time; receiving a plurality of sensor outputs, wherein the plurality of sensor outputs are generated by using the plurality of device sensors to sense information from the current views, and the plurality of sensor outputs include initial 2D frames sensed by one or more of the plurality of device sensors; and responding to reception of the plurality of sensor outputs and the user input, generating a 2D output image on the mobile device according to regulation on the virtual light source and the initial 2D frames, wherein generation of the 2D output image is real time relative to reception of the plurality of sensor outputs. In the embodiment of the invention, the virtual light source is used to replace a flash lamp, the brightness of images captured by the mobile device is improved, and the images are not blurred due to movement or shake.

A thermal printhead (A1) includes a substrate (1), and a plurality of heating portions (2) aligned on the substrate in a primary scanning direction (X) . A plurality of electrodes (31, 32, 33) are connected to the heating portions (2). Each of the heating portions (2) has a width in the primary scanning direction (X) which is smaller than that of each of the electrodes (31, 32, 33). Each of the electrodes (31, 32, 33) includes a tapered portion (31C, 32C, 33C) having a width which reduces as progressing toward a corresponding one of the heating portions 2.

A thermal printhead (A1) includes a substrate (1), and a plurality of heating portions (2) aligned on the substrate in a primary scanning direction (X) . A plurality of electrodes (31, 32, 33) are connected to the heating portions (2). Each of the heating portions (2) has a width in the primary scanning direction (X) which is smaller than that of each of the electrodes (31, 32, 33). Each of the electrodes (31, 32, 33) includes a tapered portion (31C, 32C, 33C) having a width which reduces as progressing toward a corresponding one of the heating portions 2.

The invention discloses an SAR (Synthetic Aperture Radar) image change detection method based on a neighborhood logarithm specific value and anisotropic diffusion, relating to the field of remote sensing image processing and mainly solving the problem that a difference graph structure of SAR image change detection is seriously influenced by SAR image spot noises. The SAR image change detection method comprises the following steps: (1) structuring a difference striograph IL of two images I1 and I2 of different times and same terrain according to a neighborhood logarithm specific value method; (2) carrying out self-adaptation window anisotropic diffusion filtering processing on the difference striograph IL to obtain a final filtering result graph NI<t>[L] of the difference striograph; and (3) carrying out threshold segmentation on the final filtering result graph NI<t>[L] of the difference striograph by using an OSTU (Maximum Between-Class Variance) threshold algorithm to obtain a change detection result graph CNI<t>[L] for structuring the difference striograph by using the neighborhood logarithm specific value method. The histogram of the difference striograph can be compressed so as to effectively eliminate miscellaneous points in the change detection result graph; and the self-adaptation window anisotropic diffusion filtering has favorable edge retentiveness and cannot blurs the edges of the image, thus, an obtained change detection result graph is finer.

The invention provides an optical lens, which comprises in sequence from the object side to the imaging surface along the optical axis: a diaphragm; a first lens with positive refractive power, whose object side is convex; a second lens with negative refractive power, whose object The side surface is concave; the third lens with positive power has a convex surface on the near optical axis; the fourth lens with negative power has a convex surface on the object side; the fifth lens has positive power and its The object side is concave at the near optical axis; the sixth lens with negative refractive power, its object side is concave at the near optical axis; the optical lens meets: 1.85<f / EPD<2.0, 1.35<TTL / ImgH<1.5 ; Wherein, f, EPD and ImgH are respectively the total effective focal length of the optical lens, the diameter of the entrance pupil, half of the diagonal length of the effective pixel area on the imaging surface, and TTL is the distance from the object side of the first lens to the imaging surface on the optical axis distance, so that it has the functions of large aperture, ultra-high pixel, and ultra-thin.