Update example configurations

1 files changed, 14 insertions, 30 deletions

diff --git a/doc/advanced.mux b/doc/advanced.mux
index b9cec05..24a6333 100644
--- a/doc/advanced.mux
+++ b/doc/advanced.mux
@@ -162,10 +162,6 @@ services {
 subchannels {
     sub-fu {
         type audio
-        ; example file input
-        inputproto zmq
-        inputuri "funk.mp2"
-        nonblock false
         bitrate 128
         id 10
 
@@ -182,21 +178,29 @@ subchannels {
         ; on the protection profile:
         ; UEP profile: 1 to 5; EEP profiles: 1 to 4
         protection 4
+
+        ; example file input
+        inputproto zmq
+        inputuri "funk.mp2"
+        nonblock false
     }
     sub-lu {
         type dabplus
+        bitrate 96
+        id 3
+        protection 3
         ; EXPERIMENTAL!
         ; Receive STI-D(LI) carried in STI(PI, X) inside RTP using UDP.
         ; This is intended to be compatible with AVT audio encoders.
         ; EXPERIMENTAL!
         inputproto sti
         inputuri "rtp://127.0.0.1:32010"
-        bitrate 96
-        id 3
-        protection 3
     }
     sub-ri {
         type dabplus
+        bitrate 96
+        id 1
+        protection 1
         ; example file input
         ;inputuri "rick.dabp"
         ; example zmq input:
@@ -204,9 +208,6 @@ subchannels {
         ; Use ODR-AudioEnc as encoder
         inputproto zmq
         inputuri "tcp://*:9000"
-        bitrate 96
-        id 1
-        protection 1
 
         ; ZMQ specific options, mandatory:
 
@@ -254,27 +255,14 @@ subchannels {
         ; key pairs can be generated using the zmqinput-keygen tool.
     }
 
-    sub-ri2 {
-        type audio
-        ; for audio types, you can use the ZeroMQ input (if compiled in)
-        ; with the following configuration in combination with
-        ; Toolame-DAB
-        inputproto zmq
-        inputuri "tcp://*:9001"
-        bitrate 96
-        id 1
-        protection 1
-
-        ; The options are the same as for dabplus
-        zmq-buffer 40
-        zmq-prebuffering 20
-    }
-
     ; 'prbs' will generate a pseudorandom bit sequence according to
     ; ETS 300 799 Clause G.2.1. This is useful for testing purposes and
     ; measurement of bit error rate.
     sub-prbs {
        type data
+       bitrate 16
+       id 5
+       protection 3
 
        ; Use the default PRBS polynomial.
        inputproto prbs
@@ -284,10 +272,6 @@ subchannels {
        ; The default polynomial is G(x) = x^20 + x^17 + 1, represented as
        ; (1 << 20) + (1 << 17) + (1 << 0) = 0x120001
        ;inputuri "prbs://:0x120001
-
-       bitrate 16
-       id 5
-       protection 3
    }
 }