computer also uses three primaries and uses a specific amount of each primary in a color as the way it stores color. However, a computer is a screen that emits light. So it makes more light, which means it needs efficient primaries, as used by computers are Red, Green and Blue (RGB). Per pixel, a computer then stores the value of each of these primaries, with the maximum depending on the bit-depth. These are called They are really small because the technology used to create them is based on mathematics, so it only stores maths-variables and can achieve very high quality. The downside is that the computer needs to spend

They are really small because the technology used to create them is based on mathematics, so it only stores maths-variables and can achieve very high quality. The downside is that the computer needs to spend format out there. Being vector graphics, SVG is very light weight. This is because it usually only stores coordinates and parameters for the maths involved with vector graphics. It is maintained by the save Photoshop style layered .tiff. These are different from regular layered .tiff, as Photoshop stores *.psd data inside the .tiff. This means things like layerstyles and blending modes can be stored

save Photoshop style layered .tiff. These are different from regular layered .tiff, as Photoshop stores *.psd data inside the .tiff. This means things like layerstyles and blending modes can be stored on your machine and cause the caching process to take a little bit more time, as it calculates and stores each frame. Before we move on, let's use interpolation curves instead of a straight line to change the status bar, which is red when it's making snapshots and white when it's on standby. Because it stores the snapshots, that means you can take breaks, close the image, turn off the computer, come back

solves the problem of cycling updates that we have in the old implementation. The old implementation stores all the options in a single KisPropertiesConfiguration, so we cannot split or compare it. Unidirectional library consists of four main classes: lager::state<> is the single source of truth in the system. It stores the actual data and always represents the root of the graph. lager::cursor<> is a node of the graph after the last job of the previous stroke has finished. The stroke is just a container for jobs. It stores some information about the work done, like id() and name(). Alongside storing this information it

solves the problem of cycling updates that we have in the old implementation. The old implementation stores all the options in a single KisPropertiesConfiguration, so we cannot split or compare it. Unidirectional library consists of four main classes: lager��state�� is the single source of truth in the system. It stores the actual data and always represents the root of the graph. lager��cursor�� is a node of the graph after the last job of the previous stroke has finished. The stroke is just a container for jobs. It stores some information about the work done, like id() and name(). Alongside storing this information it

solves the problem of cycling updates that we have in the old implementation. The old implementation stores all the options in a single KisPropertiesConfiguration, so we cannot split or compare it. Unidirectional library consists of four main classes: lager::state<> is the single source of truth in the system. It stores the actual data and always represents the root of the graph. lager::cursor<> is a node of the graph after the last job of the previous stroke has finished. The stroke is just a container for jobs. It stores some information about the work done, like id() and name(). Alongside storing this information it

solves the problem of cycling updates that we have in the old implementation. The old implementation stores all the options in a single KisPropertiesConfiguration, so we cannot split or compare it. Unidirectional library consists of four main classes: lager::state<> is the single source of truth in the system. It stores the actual data and always represents the root of the graph. lager::cursor<> is a node of the graph after the last job of the previous stroke has finished. The stroke is just a container for jobs. It stores some information about the work done, like id() and name(). Alongside storing this information it

after the last job of the previous stroke has finished. The stroke is just a container for jobs. It stores some information about the work done, like id() and name(). Alongside storing this information it purpose we introduced KisResourcesSnapshot class. It solves two problems at the same time: first it stores all the resources we might have and second it encapsulates the algorithm of loading these resources easier to cancel the undo than to wait until all the strokes are finished. Undo Adapters and Undo Stores Well, we have two types of undo adapters now (not counting KisSurrrogateUndoAdapter). It’s obvious

after the last job of the previous stroke has finished. The stroke is just a container for jobs. It stores some information about the work done, like id() and name(). Alongside storing this information it purpose we introduced KisResourcesSnapshot class. It solves two problems at the same time: first it stores all the resources we might have and second it encapsulates the algorithm of loading these resources easier to cancel the undo than to wait until all the strokes are finished. Undo Adapters and Undo Stores Well, we have two types of undo adapters now (not counting KisSurrrogateUndoAdapter). It’s obvious