X-Git-Url: http://lambda.jimpryor.net/git/gitweb.cgi?p=lambda.git;a=blobdiff_plain;f=cps_and_continuation_operators.mdwn;h=258f7227f66f093cf5d7e5f1989ea25f943ecc6e;hp=3b0dda78ffd40b2ad7e4da0ea855c2e388fbc339;hb=9a23d7fc448e48268a7b60ce9ff3e55222cd833a;hpb=62f467c824015512f41061fe2777dbc326649f5b

diff --git a/cps_and_continuation_operators.mdwn b/cps_and_continuation_operators.mdwn
index 3b0dda78..258f7227 100644
--- a/cps_and_continuation_operators.mdwn
+++ b/cps_and_continuation_operators.mdwn
@@ -401,40 +401,41 @@ Here are some more examples of using delimited control operators. We present eac
 
 Example 1:
 
-	; (+ 100 (+ 10 (abort 1))) ~~> 1
+	; (+ 1000 (+ 100 (abort 11))) ~~> 11
 	
-	app2 (op2 plus) (var hundred)
-	  (app2 (op2 plus) (var ten) (abort (var one)))
+	app2 (op2 plus) (var thousand)
+	  (app2 (op2 plus) (var hundred) (abort (var eleven)))
 	
 	# Continuation_monad.(run0(
-	    abort 1 >>= fun i ->
-	    unit (10+i) >>= fun j ->
-	    unit (100+j)));;
-	- : int = 1
+	    abort 11 >>= fun i ->
+	    unit (100+i) >>= fun j ->
+	    unit (1000+j)));;
+	- : int = 11
 
 When no `reset` is specified, there's understood to be an implicit one surrounding the entire computation (but unlike in the case of `callcc`, you still can't capture up to *and including* the end of the computation). So it makes no difference if we say instead:
 
 	# Continuation_monad.(run0(
 	    reset (
-	      abort 1 >>= fun i ->
-	      unit (10+i) >>= fun j ->
-	      unit (100+j))));;
-	- : int = 1
+	      abort 11 >>= fun i ->
+	      unit (100+i) >>= fun j ->
+	      unit (1000+j))));;
+	- : int = 11
 
 
 Example 2:
 	
-	; (+ 100 (reset (+ 10 (abort 1)))) ~~> 101
+	; (+ 1000 (reset (+ 100 (abort 11)))) ~~> 1011
 	
-	app2 (op2 plus) (var hundred)
-	  (reset (app2 (op2 plus) (var ten) (abort (var one))))
+	app2 (op2 plus) (var thousand)
+	  (reset (app2 (op2 plus) (var hundred) (abort (var eleven))))
 	
 	# Continuation_monad.(run0(
 	    reset (
-	      abort 1 >>= fun i ->
-	      unit (10+i)) >>= fun j ->
-	       unit (100+j)));;
-	- : int = 101
+	      abort 11 >>= fun i ->
+	      unit (100+i)
+	    ) >>= fun j ->
+	    unit (1000+j)));;
+	- : int = 1011
 
 Example 3:
 
@@ -477,7 +478,7 @@ To demonstrate the different adding order between Examples 4 and 5, we use `::`
 	    (shift (\k. ((op2 plus) (var ten) (app (var k) (var one)))))))
 	
 	Continuation_monad.(let v = reset (
-	  let u = shift (fun k -> k [1] >>= fun x -> unit (10 :: x))
+	    let u = shift (fun k -> k [1] >>= fun x -> unit (10 :: x))
 	    in u >>= fun x -> unit (100 :: x)
 	  ) in let w = v >>= fun x -> unit (1000 :: x)
 	  in run0  w)
@@ -503,7 +504,7 @@ Example 7:
 	    (shift (\k. app (var k) (app (var k) (var one))))))
 	
 	Continuation_monad.(let v = reset (
-	  let u = shift (fun k -> k 1 >>= fun x -> k x)
+	    let u = shift (fun k -> k 1 >>= fun x -> k x)
 	    in u >>= fun x -> unit (10 + x)
 	  ) in let w = v >>= fun x -> unit (100 + x)
 	  in run0 w)