in Krita without going into minute details. Contents Basic Concepts Raster and Vector Images, Views and Windows Image View Dockers Window Canvas in Krita Layers and Compositing Tools Brush Engines any loss in quality. In Krita, everything which is not on a vector layer is raster based. Images, Views and Windows In a painting program, there are three major containers that make up your work-space the image via a View. View A view is a window onto your image. Krita allows you to have multiple views, and you can manipulate the view to zoom, rotate and mirror and modify the color of the way you see

tutorial below should give you an idea of how to set up the assistants for specific types of technical views. If you want to instead do the true projection, check out the projection category. 정사형 Orthographic instead splits the image into smaller chunks, allowing for multi- threaded encoding, as well as per-chunk optimization. This option allows you to choose whether the encoder should do so with the lossy VarDCT object where you actually might NEED projection. Like a face. First, let’s prepare our front and side views: I always start with the side, and then extrapolate the front view from it. Because you are using

instead splits the image into smaller chunks, allowing for multi- threaded encoding, as well as per-chunk optimization. This option allows you to choose whether the encoder should do so with the lossy VarDCT object where you actually might NEED projection. Like a face. First, let's prepare our front and side views: I always start with the side, and then extrapolate the front view from it. Because you are using to them. And from this, like with the shearing method, we start drawing. (Don’t forget the top- views!) Which should get you something like this: But again, the regular method is actually a bit easier

connect via // native Qt signals) strength.bind(std::bind(&QDoubleSpinBox::setValue, strengthSpinBox, std::placeholders::_1)); lager::reader<> and lager::writer<> standard function or functor which is used to // transform the source cursor on-the-fly .map(std::logical_and{}); We use such “effectiveValue” design a lot. It is the main tool against the cycling don't do this! allowedByTheBrush.bind(std::bind(&lager::cursor::set, &isCheckedByUser, std::placeholders::_1); Such design has a

connect via �� native Qt signals) strength.bind(std��bind(&QDoubleSpinBox��setValue, strengthSpinBox, std��placeholders��_1)); lager��reader�� and lager��writer�� function or functor which is used to �� transform the source cursor on-the-fly .map(std��logical_and{}); We use such “effectiveValue” design a lot. It is the main tool against the cycling don't do this! allowedByTheBrush.bind(std��bind(&lager��cursor��set, &isCheckedByUser, std��placeholders��_1); Such design has a small

connect via // native Qt signals) strength.bind(std::bind(&QDoubleSpinBox::setValue, strengthSpinBox, std::placeholders::_1)); lager::reader<> and lager::writer<> function or functor which is used to // transform the source cursor on-the-fly .map(std::logical_and{}); We use such “effectiveValue” design a lot. It is the main tool against the cycling don't do this! allowedByTheBrush.bind(std::bind(&lager::cursor::set, &isCheckedByUser, std::placeholders::_1); Such design has a small

connect via // native Qt signals) strength.bind(std::bind(&QDoubleSpinBox::setValue, strengthSpinBox, std::placeholders::_1)); lager::reader<> and lager::writer<> function or functor which is used to // transform the source cursor on-the-fly .map(std::logical_and{}); We use such “effectiveValue” design a lot. It is the main tool against the cycling don't do this! allowedByTheBrush.bind(std::bind(&lager::cursor::set, &isCheckedByUser, std::placeholders::_1); Such design has a small

obfuscating. For example, auto x = 2 is not obviously an integer, and auto x = {"a", "b", "c"} returns std��initializer_list, and sometimes it is not clear what some function returns by the name of the function QStringList x = {"abc", "def", "xyz" }; and if you later changed the type to QVector, or even std��list<std��string>, you wouldn’t have to make any change to the right hand side. A second place initializer standard algorithm library , which is described below. In Qt5, this, along with std::function and std::bind, allow for One of the most useful C++11 integrations, a new signal/slot syntax which

obfuscating. For example, auto x = 2 is not obviously an integer, and auto x = {"a", "b", "c"} returns std::initializer_list, and sometimes it is not clear what some function returns by the name of the function QStringList x = {"abc", "def", "xyz" }; and if you later changed the type to QVector, or even std::list<std::string>, you wouldn’t have to make any change to the right hand side. A second place initializer standard algorithm library , which is described below. In Qt5, this, along with std::function and std::bind, allow for One of the most useful C++11 integrations, a new signal/slot syntax which