Abstract: Animation of a thermal image captured by a thermal imager that includes automatically changing particular aspects of the presentation of the image. The coloring of the thermal image may automatically change through two or more color presentations. The colors which may automatically change or be “animated” may be any colors in the usual rainbow of color or in the grayscale. The animation may include a series of small, stepwise incremental changes that gradually change the image. If timed correctly and if the increments are sufficiently small, the transitions of the image may appear smooth, in the manner of a movie or cartoon.

Abstract: Animation of a thermal image captured by a thermal imager that includes automatically changing particular aspects of the presentation of the image. The coloring of the thermal image may automatically change through two or more color presentations. The colors which may automatically change or be “animated” may be any colors in the usual rainbow of color or in the greyscale. The animation may include a series of small, stepwise incremental changes that gradually change the image. If timed correctly and if the increments are sufficiently small, the transitions of the image may appear smooth, in the manner of a movie or cartoon.

Abstract: A graphical user interface facilitates methods for analyzing a temperature distribution across a scene that is captured by a thermal imaging device. Preferably, the interface includes a both a two-dimensional image of the captured scene and a three-dimensional representation of the captured scene. The three-dimensional representation is formed by a plurality of pixels, each of which are coded by a qualitative value from within a range of qualitative values, and each value, within the range, corresponds to a temperature. Each of the plurality of pixels is arranged, in a first and a second dimension of the three dimensions, according to a position of a corresponding pixel of the two-dimensional image, and, in a third dimension, according to a magnitude of the temperature associated therewith.

Abstract: A graphical user interface facilitates methods for analyzing a temperature distribution across a scene that is captured by a thermal imaging device. Preferably, the interface includes a both a two-dimensional image of the captured scene and a three-dimensional representation of the captured scene. The three-dimensional representation is formed by a plurality of pixels, each of which are coded by a qualitative value from within a range of qualitative values, and each value, within the range, corresponds to a temperature. Each of the plurality of pixels is arranged, in a first and a second dimension of the three dimensions, according to a position of a corresponding pixel of the two-dimensional image, and, in a third dimension, according to a magnitude of the temperature associated therewith.