The @font-face rule allows for linking to fontsthat are automatically fetched and activated when needed.This allows authors to select a fontthat closely matches the design goals for a given pagerather than limiting the font choiceto a set of fonts available on a given platform.A set of font descriptors define the location of a font resource,either locally or externally,along with the style characteristics of an individual face.Multiple @font-face rules can be used to construct font families with a variety of faces.Using CSS font matching rules,a user agent can selectively downloadonly those faces that are needed for a given piece of text.
These descriptors define the characteristics of a font faceand are used in the process of matching styles to specific faces.For a font family defined with several @font-face rules,user agents can either download all faces in the familyor use these descriptors to selectively download font faces that match actual styles used in document.The meaning of the values for these descriptorsare the same as those for the corresponding font propertiesexcept that relative keywords are not allowed, bolder and lighter.If these descriptors are omitted,initial values are assumed.If specified values are out of rangeof the accepted values of the property of the same name,the descriptor is treated as a parse error.
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In this case the user agent first checks the unicode-range for thefont containing Latin characters (DroidSans.woff). Since all thecharacters above are in the range U+0-5FF, the user agent downloads thefont and renders the text with that font.
The user agent again first checks the unicode-range of the fontcontaining Latin characters. Since U+2000-2300 includes the arrowcode point (U+21E8), the user agent downloads the font. For thischaracter however the Latin font does not have a matching glyph, so theeffective unicode-range used for font matching excludes this code point.Next, the user agent evaluates the Japanese font. The unicode-range forthe Japanese font, U+3000-9FFF and U+ff??, does not include U+21E8, sothe user agent does not download the Japanese font.Next the fallback font is considered. The @font-face rule for thefallback font does not define unicode-range so its value defaults tothe range of all Unicode code points. The fallback font is downloaded andused to render the arrow character.
An attacker may obtain fingerprinting information by querying the Installed Fonts.In contrast to older technologies(notably Adobe Flash, which provided a complete list of Installed Fontsand sent this information in HTTP headers)such probing must be done one font at a time,providing the font family nameand then checking(either via script,or by using unicode-range to selectively download webfontsdepending on whether the user has a font by a certain namethat supports a certain character)whether the font was loaded.This takes time, and checking for more than a few hundred fontsintroduces a noticeable delay in page rendering.
For especially privacy-sensitive contexts,options would include never downloading any webfonts(at the risk that some characters may be rendered incorrectly, or not at all),or always downloading all webfonts whether needed or not(ignoring unicode-range,and potentially downloading vast quantities of unused fontseach time the page is viewed).
Role management in combat is a recurring problem in video games. Role management deals with the distribution of responsibilities, such as damaging, tanking, healing and disabling, among a group of units or characters fighting together. This problem is often encountered in popular genres such as RPG (e.g., World of Warcraft, Blizzard Entertainment 2004), RTS (e.g., Command & Conquer: Red Alert 3, Electronic Arts 2008) and FPS (e.g., Left 4 Dead, Valve Corporation 2008). Roles can be determined based on several factors, including unit type or character class, attributes and abilities, equipment and items, unit or character state and even player skill or preference. Without targeting any specific game, it is possible to define effective policies for role management using conceptual data only. The data can be static like a sorted list of role proficiencies indicating in order which roles a unit or character is inherently suited for. Such information can be used by the AI to assign roles in a group of units of different type in combat. Dynamic data can also be used to control roles in battle, like current hit points (The amount of damage a unit can withstand.), passive damage reduction against a typed attack and available abilities of a unit. For instance, these can be used together to estimate the current tanking capacity for units of the same type. Naturally, the interpretation of these concepts varies from one game to another. Yet a conceptual policy remains effective in any case.
Any form of distribution of responsibilities between units or characters fighting together can be considered role management. Role management does not assume any objective in particular. Depending on the goal of the group, different distribution strategies can be devised. The problem of role management in combat can therefore be described as follows. Given an objective, two or more units or characters and a set of roles, define a policy which dynamically assigns a number of roles to each unit or character during combat in a way which makes the completion of the objective more likely than it would be if units or characters each assumed all responsibilities individually. An example of objective is defeating an enemy unit. Roles do not have to include multiple responsibilities. They can be simple and represent specific responsibilities such as acting as a decoy or baiting the enemy. 2ff7e9595c
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