@@ -137,7 +137,7 @@ The first five keys `[0..4]` are
137these values. Both the Haskell code and `jsaddle.js` can allocate new `JSVal` keys. The Haskell code allocates negative
137these values. Both the Haskell code and `jsaddle.js` can allocate new `JSVal` keys. The Haskell code allocates negative
138keys and `jsaddle.js` allocates positive keys to avoid clashing.
138keys and `jsaddle.js` allocates positive keys to avoid clashing.
140−The haskell code will not know the value of the to go with the key, but it will include it in commands to the server
140+The haskell code will not know the value to go with the key, but it will include it in commands to the server
141that are sort of "hey call this function and put the result in the map with this key"). This allows for the
141that are sort of "hey call this function and put the result in the map with this key"). This allows for the
142lazy execution of the JSaddle code.
142lazy execution of the JSaddle code.
@@ -146,7 +146,7 @@ when the JSVal is no longer reachable. The `jsaddle.js` code then deletes the k
147### JSStrings
147### JSStrings
149−These are haskell `Text` type and so reside on the native side of the WebSocket. If you want to make avoid transferring large string values over the WebSocket use `toJSVal` to convert it to a `JSVal`.
149+These are haskell `Text` type and so reside on the native side of the WebSocket. If you want to avoid transferring large string values over the WebSocket use `toJSVal` to convert it to a `JSVal`.
151### Lazy Execution
151### Lazy Execution
@@ -213,7 +213,7 @@ JSaddle does not support exceptions well. When compiled with GHCJS an exception
213at the point the exception is thrown.
213at the point the exception is thrown.
215When using GHC the Haskell executions will probably continue for a while before the exception is received at all by the Haskell code
215When using GHC the Haskell executions will probably continue for a while before the exception is received at all by the Haskell code
216−(because the lazy execution of the JS code). The exception will be thrown when the the next synchronous command is executed.
216+(because the lazy execution of the JS code). The exception will be thrown when the next synchronous command is executed.
217When it reaches the synchronous command a haskell type JSException will be thrown (this may not be the thread that initiated the
217When it reaches the synchronous command a haskell type JSException will be thrown (this may not be the thread that initiated the
218command that caused the exception). You can use `syncPoint` and `syncAfter` to force the exception to be thrown.
218command that caused the exception). You can use `syncPoint` and `syncAfter` to force the exception to be thrown.
219There are `JSM` versions of `catch` and `bracket` that also include a `syncPoint` call.
219There are `JSM` versions of `catch` and `bracket` that also include a `syncPoint` call.