keytable: add support for keymap with raw literal strings

index 9b93f198..2aebfb0b 100755
@@ -146,14 +146,14 @@ class LircdParser:
             a = line.split()
             if a[0] == 'name':
                 if len(codes) > 0:
-                    raw_codes.append({ 'name': name, 'codes': codes })
+                    raw_codes.append({ 'keycode': name, 'raw': codes })
                 name = line.split(maxsplit=2)[1]
                 if not name.startswith('KEY_'):
                     name = 'KEY_' + name.upper()
                 codes = []
             elif a[0] == 'end':
                 if len(codes) > 0:
-                    raw_codes.append({ 'name': name, 'codes': codes })
+                    raw_codes.append({ 'keycode': name, 'raw': codes })
                 return raw_codes
             else:
                 for v in a:

@@ -224,6 +224,8 @@ class Converter:
             return self.convert_rcmm()
         elif 'space_enc' in flags:
             return self.convert_space_enc()
+        elif 'raw_codes' in flags:
+            return self.convert_raw_codes()
         else:
             self.error('Cannot convert remote with flags: {}'.format('|'.join(flags)))
 

@@ -567,6 +569,16 @@ class Converter:
 
         return res
 
+    def convert_raw_codes(self):
+        res  = {
+            'protocol': 'raw',
+            'params': {},
+            'raw': self.remote['raw_codes'],
+            'name': self.remote['name']
+        }
+
+        return res
+
 def escapeString(s):
     return "'" + s.encode('unicode_escape').decode('utf-8') + "'"
 

@@ -576,16 +588,32 @@ def writeTOMLFile(fh, remote):
     print('protocol = {}'.format(escapeString(remote['protocol'])), file=fh)
     for p in remote['params']:
         print('{} = {}'.format(p, remote['params'][p]), file=fh)
-    print('[protocols.scancodes]', file=fh)
-    # find the largest scancode
-    length=1
-    for c in remote['map']:
-        length=max(length, c.bit_length())
-
-    # width seems to include '0x', hence the + 2
-    width = math.ceil(length/4) + 2
-    for c in remote['map']:
-        print('{:#0{width}x} = {}'.format(c, escapeString(remote['map'][c]), width=width), file=fh)
+
+    if 'map' in remote:
+        print('[protocols.scancodes]', file=fh)
+        # find the largest scancode
+        length=1
+        for c in remote['map']:
+            length=max(length, c.bit_length())
+
+        # width seems to include '0x', hence the + 2
+        width = math.ceil(length/4) + 2
+        for c in remote['map']:
+            print('{:#0{width}x} = {}'.format(c, escapeString(remote['map'][c]), width=width), file=fh)
+
+    elif 'raw' in remote:
+        for raw in remote['raw']:
+            print('[[protocols.raw]]', file=fh)
+            print('keycode = {}\nraw = ['.format(escapeString(raw['keycode'])), file=fh, end='')
+            first = True
+            for v in raw['raw']:
+                if first:
+                    print(' {}'.format(v), file=fh, end='')
+                else:
+                    print(', {}'.format(v), file=fh, end='')
+                first = False
+
+            print(' ]', file=fh)
 
     return True
 

index bca3bdec..d9facbc9 100644
@@ -10,7 +10,7 @@ CLANG_SYS_INCLUDES := $(shell $(CLANG) -v -E - </dev/null 2>&1 \
 %.o: %.c bpf_helpers.h
 	$(CLANG) $(CLANG_SYS_INCLUDES) -D__linux__ -I$(top_srcdir)/include -target bpf -O2 -c $<
 
-PROTOCOLS = grundig.o pulse_distance.o pulse_length.o rc_mm.o manchester.o xbox-dvd.o imon_rsc.o
+PROTOCOLS = grundig.o pulse_distance.o pulse_length.o rc_mm.o manchester.o xbox-dvd.o imon_rsc.o raw.o
 
 all: $(PROTOCOLS)
 

index c9e672d7..f2897631 100644
@@ -21,7 +21,7 @@ name than the file name, e.g. the model number.
 The \fBprotocol\fR field specifies the protocol. This can either be one of the
 linux kernel decoders, in which case it is \fBnec\fR, \fBrc\-5\fR, \fBrc\-6\fR,
 \fBjvc\fR, \fBsony\fR, \fBsanyo\fR, \fBrc\-5\-sz\fR, \fBsharp\fR,
-\fBmce\-kbd\fR, \fBxmp\fR, \fBimon\fR, \fBrc\-mm\fR, \fBother\fR or
+\fBmce\-kbd\fR, \fBxmp\fR, \fBimon\fR, \fBrc\-mm\fR, \fBraw\fR, \fBother\fR or
 \fBunknown\fR. If it does not match any of these entries, then it is assumed
 to be a BPF based decoder. The \fBunknown\fR and \fBother\fR are protocols
 decoded by specific RC devices where the protocol is either unknown or

@@ -52,7 +52,8 @@ Protocol \fBrc\-mm\fR has variants \fBrc-mm-12\fR, \fBrc-mm-24\fR, and
 \fBrc-mm-32\fR.
 .SS Scancodes field
 The \fBscancodes\fR table list the scancodes and the mapping to linux input
-key events. Multiple scancodes can map to the same key event.
+key events. Multiple scancodes can map to the same key event. This field
+is not present for \fBraw\fR protocols.
 .PP
 If the scancode start with 0x, it is interpreted as a hexadecimal number. If
 it starts with a 0, it is interpreted as an octal number.

@@ -60,6 +61,16 @@ it starts with a 0, it is interpreted as an octal number.
 The key events are listed in the \fBinput-event-codes.h\fR header file.
 Examples are \fBKEY_ENTER\fR, \fBKEY_ESC\fR or \fBBTN_LEFT\fR for the left
 mouse button.
+.SS Raw field
+If the protocol is \fBraw\fR, the \fBraw\fR field is an array of keycode
+to raw mapping. For each entry, there is a \fBkeycode\fR field and \fBraw\fR
+field. The \fBkeycode\fR is a linux input event, as explained the scancodes
+section.
+.PP
+The \fBraw\fR field is an array of integers. These are the pulse and space
+values of the IR message. The first is a pulse value in microseconds, and
+the second a space, third pulse, etc. There should be an odd number of fields
+so that the last entry is a pulse.
 .SS Remaining fields (BPF parameters)
 If the protocol is a BPF based decoder, it may have any number of numeric
 parameters. These parameters are used to support protocols with non-standard