Safe Haskell	None
Language	Haskell2010

Drone.Client.Path

Synopsis

type Paths = XPaths [Text]
type XPaths r = Record '["pathSelf" >: Format r r, "pathFeed" >: Format r r, "pathRepos" >: Format r r, "pathRepo" >: Format r (Text -> Text -> r), "pathRepoMove" >: Format r (Text -> Text -> r), "pathChown" >: Format r (Text -> Text -> r), "pathRepair" >: Format r (Text -> Text -> r), "pathBuilds" >: Format r (Text -> Text -> r), "pathBuild" >: Format r (Text -> Text -> Text -> r), "pathApprove" >: Format r (Text -> Text -> Int -> Int -> r), "pathDecline" >: Format r (Text -> Text -> Int -> Int -> r), "pathPromote" >: Format r (Text -> Text -> Int -> r), "pathRollback" >: Format r (Text -> Text -> Int -> r), "pathJob" >: Format r (Text -> Text -> Int -> Int -> r), "pathLog" >: Format r (Text -> Text -> Int -> Int -> Int -> r), "pathRepoSecrets" >: Format r (Text -> Text -> r), "pathRepoSecret" >: Format r (Text -> Text -> Text -> r), "pathRepoRegistries" >: Format r (Text -> Text -> r), "pathRepoRegistry" >: Format r (Text -> Text -> Text -> r), "pathEncryptSecret" >: Format r (Text -> Text -> r), "pathEncryptRegistry" >: Format r (Text -> Text -> r), "pathSign" >: Format r (Text -> Text -> r), "pathVerify" >: Format r (Text -> Text -> r), "pathCrons" >: Format r (Text -> Text -> r), "pathCron" >: Format r (Text -> Text -> Text -> r), "pathUsers" >: Format r r, "pathUser" >: Format r (Text -> r), "pathQueue" >: Format r r, "pathServers" >: Format r r, "pathServer" >: Format r (Text -> r), "pathScalerPause" >: Format r r, "pathScalerResume" >: Format r r, "pathNodes" >: Format r r, "pathNode" >: Format r (Text -> r), "pathVersion" >: Format r r]
paths :: Paths
format :: Path a -> a
data Format r a

Documentation

type Paths = XPaths [Text] Source #

type XPaths r = Record '["pathSelf" >: Format r r, "pathFeed" >: Format r r, "pathRepos" >: Format r r, "pathRepo" >: Format r (Text -> Text -> r), "pathRepoMove" >: Format r (Text -> Text -> r), "pathChown" >: Format r (Text -> Text -> r), "pathRepair" >: Format r (Text -> Text -> r), "pathBuilds" >: Format r (Text -> Text -> r), "pathBuild" >: Format r (Text -> Text -> Text -> r), "pathApprove" >: Format r (Text -> Text -> Int -> Int -> r), "pathDecline" >: Format r (Text -> Text -> Int -> Int -> r), "pathPromote" >: Format r (Text -> Text -> Int -> r), "pathRollback" >: Format r (Text -> Text -> Int -> r), "pathJob" >: Format r (Text -> Text -> Int -> Int -> r), "pathLog" >: Format r (Text -> Text -> Int -> Int -> Int -> r), "pathRepoSecrets" >: Format r (Text -> Text -> r), "pathRepoSecret" >: Format r (Text -> Text -> Text -> r), "pathRepoRegistries" >: Format r (Text -> Text -> r), "pathRepoRegistry" >: Format r (Text -> Text -> Text -> r), "pathEncryptSecret" >: Format r (Text -> Text -> r), "pathEncryptRegistry" >: Format r (Text -> Text -> r), "pathSign" >: Format r (Text -> Text -> r), "pathVerify" >: Format r (Text -> Text -> r), "pathCrons" >: Format r (Text -> Text -> r), "pathCron" >: Format r (Text -> Text -> Text -> r), "pathUsers" >: Format r r, "pathUser" >: Format r (Text -> r), "pathQueue" >: Format r r, "pathServers" >: Format r r, "pathServer" >: Format r (Text -> r), "pathScalerPause" >: Format r r, "pathScalerResume" >: Format r r, "pathNodes" >: Format r r, "pathNode" >: Format r (Text -> r), "pathVersion" >: Format r r] Source #

paths :: Paths Source #

format :: Path a -> a Source #

data Format r a #

A formatter. When you construct formatters the first type parameter, r, will remain polymorphic. The second type parameter, a, will change to reflect the types of the data that will be formatted. For example, in

myFormat :: Formatter r (Text -> Int -> r)
myFormat = "Person's name is " % text % ", age is " % hex

the first type parameter remains polymorphic, and the second type parameter is Text -> Int -> r, which indicates that it formats a Text and an Int.

When you run the Format, for example with format, you provide the arguments and they will be formatted into a string.

> format ("Person's name is " % text % ", age is " % hex) "Dave" 54
"Person's name is Dave, age is 36"

Instances

Functor (Format r)	Not particularly useful, but could be.
Instance details Defined in Formatting.Internal Methods fmap :: (a -> b) -> Format r a -> Format r b # (<$) :: a -> Format r b -> Format r a #
Category Format	The same as (%). At present using `Category` has an import overhead, but one day it might be imported as standard.
Instance details Defined in Formatting.Internal Methods id :: Format a a # (.) :: Format b c -> Format a b -> Format a c #
a ~ r => IsString (Format r a)	Useful instance for writing format string. With this you can write `Foo` instead of `now "Foo!"`.
Instance details Defined in Formatting.Internal Methods fromString :: String -> Format r a #
Semigroup (Format r (a -> r))
Instance details Defined in Formatting.Internal Methods (<>) :: Format r (a -> r) -> Format r (a -> r) -> Format r (a -> r) # sconcat :: NonEmpty (Format r (a -> r)) -> Format r (a -> r) # stimes :: Integral b => b -> Format r (a -> r) -> Format r (a -> r) #
Monoid (Format r (a -> r))	Useful instance for applying two formatters to the same input argument. For example: `format (year <> "/" % month) now` will yield `"2015/01"`.
Instance details Defined in Formatting.Internal Methods mempty :: Format r (a -> r) # mappend :: Format r (a -> r) -> Format r (a -> r) -> Format r (a -> r) # mconcat :: [Format r (a -> r)] -> Format r (a -> r) #