To simplify running tests we should move this class into its own file.
This allows the tests to import it without having to import dtoc.py, which
runs the tests.

Signed-off-by: Simon Glass <s...@chromium.org>
---

 tools/dtoc/dtb_platdata.py | 411 +++++++++++++++++++++++++++++++++++++++++++++
 tools/dtoc/dtoc.py         | 408 +-------------------------------------------
 2 files changed, 414 insertions(+), 405 deletions(-)
 create mode 100644 tools/dtoc/dtb_platdata.py

diff --git a/tools/dtoc/dtb_platdata.py b/tools/dtoc/dtb_platdata.py
new file mode 100644
index 0000000000..94db274c09
--- /dev/null
+++ b/tools/dtoc/dtb_platdata.py
@@ -0,0 +1,411 @@
+#!/usr/bin/python
+#
+# Copyright (C) 2017 Google, Inc
+# Written by Simon Glass <s...@chromium.org>
+#
+# SPDX-License-Identifier:     GPL-2.0+
+#
+
+import copy
+
+import fdt
+import fdt_util
+
+# When we see these properties we ignore them - i.e. do not create a structure 
member
+PROP_IGNORE_LIST = [
+    '#address-cells',
+    '#gpio-cells',
+    '#size-cells',
+    'compatible',
+    'linux,phandle',
+    "status",
+    'phandle',
+    'u-boot,dm-pre-reloc',
+    'u-boot,dm-tpl',
+    'u-boot,dm-spl',
+]
+
+# C type declarations for the tyues we support
+TYPE_NAMES = {
+    fdt.TYPE_INT: 'fdt32_t',
+    fdt.TYPE_BYTE: 'unsigned char',
+    fdt.TYPE_STRING: 'const char *',
+    fdt.TYPE_BOOL: 'bool',
+};
+
+STRUCT_PREFIX = 'dtd_'
+VAL_PREFIX = 'dtv_'
+
+def Conv_name_to_c(name):
+    """Convert a device-tree name to a C identifier
+
+    Args:
+        name:   Name to convert
+    Return:
+        String containing the C version of this name
+    """
+    str = name.replace('@', '_at_')
+    str = str.replace('-', '_')
+    str = str.replace(',', '_')
+    str = str.replace('.', '_')
+    str = str.replace('/', '__')
+    return str
+
+def TabTo(num_tabs, str):
+    if len(str) >= num_tabs * 8:
+        return str + ' '
+    return str + '\t' * (num_tabs - len(str) // 8)
+
+class DtbPlatdata:
+    """Provide a means to convert device tree binary data to platform data
+
+    The output of this process is C structures which can be used in space-
+    constrained encvironments where the ~3KB code overhead of device tree
+    code is not affordable.
+
+    Properties:
+        fdt: Fdt object, referencing the device tree
+        _dtb_fname: Filename of the input device tree binary file
+        _valid_nodes: A list of Node object with compatible strings
+        _options: Command-line options
+        _phandle_node: A dict of nodes indexed by phandle number (1, 2...)
+        _outfile: The current output file (sys.stdout or a real file)
+        _lines: Stashed list of output lines for outputting in the future
+        _phandle_node: A dict of Nodes indexed by phandle (an integer)
+    """
+    def __init__(self, dtb_fname, options):
+        self._dtb_fname = dtb_fname
+        self._valid_nodes = None
+        self._options = options
+        self._phandle_node = {}
+        self._outfile = None
+        self._lines = []
+        self._aliases = {}
+
+    def SetupOutput(self, fname):
+        """Set up the output destination
+
+        Once this is done, future calls to self.Out() will output to this
+        file.
+
+        Args:
+            fname: Filename to send output to, or '-' for stdout
+        """
+        if fname == '-':
+            self._outfile = sys.stdout
+        else:
+            self._outfile = open(fname, 'w')
+
+    def Out(self, str):
+        """Output a string to the output file
+
+        Args:
+            str: String to output
+        """
+        self._outfile.write(str)
+
+    def Buf(self, str):
+        """Buffer up a string to send later
+
+        Args:
+            str: String to add to our 'buffer' list
+        """
+        self._lines.append(str)
+
+    def GetBuf(self):
+        """Get the contents of the output buffer, and clear it
+
+        Returns:
+            The output buffer, which is then cleared for future use
+        """
+        lines = self._lines
+        self._lines = []
+        return lines
+
+    def GetValue(self, type, value):
+        """Get a value as a C expression
+
+        For integers this returns a byte-swapped (little-endian) hex string
+        For bytes this returns a hex string, e.g. 0x12
+        For strings this returns a literal string enclosed in quotes
+        For booleans this return 'true'
+
+        Args:
+            type: Data type (fdt_util)
+            value: Data value, as a string of bytes
+        """
+        if type == fdt.TYPE_INT:
+            return '%#x' % fdt_util.fdt32_to_cpu(value)
+        elif type == fdt.TYPE_BYTE:
+            return '%#x' % ord(value[0])
+        elif type == fdt.TYPE_STRING:
+            return '"%s"' % value
+        elif type == fdt.TYPE_BOOL:
+            return 'true'
+
+    def GetCompatName(self, node):
+        """Get a node's first compatible string as a C identifier
+
+        Args:
+            node: Node object to check
+        Return:
+            C identifier for the first compatible string
+        """
+        compat = node.props['compatible'].value
+        aliases = []
+        if type(compat) == list:
+            compat, aliases = compat[0], compat[1:]
+        return Conv_name_to_c(compat), [Conv_name_to_c(a) for a in aliases]
+
+    def ScanDtb(self):
+        """Scan the device tree to obtain a tree of notes and properties
+
+        Once this is done, self.fdt.GetRoot() can be called to obtain the
+        device tree root node, and progress from there.
+        """
+        self.fdt = fdt.FdtScan(self._dtb_fname)
+
+    def ScanNode(self, root):
+        for node in root.subnodes:
+            if 'compatible' in node.props:
+                status = node.props.get('status')
+                if (not self._options.include_disabled and not status or
+                    status.value != 'disabled'):
+                    self._valid_nodes.append(node)
+                    phandle_prop = node.props.get('phandle')
+                    if phandle_prop:
+                        phandle = phandle_prop.GetPhandle()
+                        self._phandle_node[phandle] = node
+
+            # recurse to handle any subnodes
+            self.ScanNode(node);
+
+    def ScanTree(self):
+        """Scan the device tree for useful information
+
+        This fills in the following properties:
+            _phandle_node: A dict of Nodes indexed by phandle (an integer)
+            _valid_nodes: A list of nodes we wish to consider include in the
+                platform data
+        """
+        self._phandle_node = {}
+        self._valid_nodes = []
+        return self.ScanNode(self.fdt.GetRoot());
+
+        for node in self.fdt.GetRoot().subnodes:
+            if 'compatible' in node.props:
+                status = node.props.get('status')
+                if (not self._options.include_disabled and not status or
+                    status.value != 'disabled'):
+                    node_list.append(node)
+                    phandle_prop = node.props.get('phandle')
+                    if phandle_prop:
+                        phandle = phandle_prop.GetPhandle()
+                        self._phandle_node[phandle] = node
+
+        self._valid_nodes = node_list
+
+    def IsPhandle(self, prop):
+        """Check if a node contains phandles
+
+        We have no reliable way of detecting whether a node uses a phandle
+        or not. As an interim measure, use a list of known property names.
+
+        Args:
+            prop: Prop object to check
+        Return:
+            True if the object value contains phandles, else False
+        """
+        if prop.name in ['clocks']:
+            return True
+        return False
+
+    def ScanStructs(self):
+        """Scan the device tree building up the C structures we will use.
+
+        Build a dict keyed by C struct name containing a dict of Prop
+        object for each struct field (keyed by property name). Where the
+        same struct appears multiple times, try to use the 'widest'
+        property, i.e. the one with a type which can express all others.
+
+        Once the widest property is determined, all other properties are
+        updated to match that width.
+        """
+        structs = {}
+        for node in self._valid_nodes:
+            node_name, _ = self.GetCompatName(node)
+            fields = {}
+
+            # Get a list of all the valid properties in this node.
+            for name, prop in node.props.items():
+                if name not in PROP_IGNORE_LIST and name[0] != '#':
+                    fields[name] = copy.deepcopy(prop)
+
+            # If we've seen this node_name before, update the existing struct.
+            if node_name in structs:
+                struct = structs[node_name]
+                for name, prop in fields.items():
+                    oldprop = struct.get(name)
+                    if oldprop:
+                        oldprop.Widen(prop)
+                    else:
+                        struct[name] = prop
+
+            # Otherwise store this as a new struct.
+            else:
+                structs[node_name] = fields
+
+        upto = 0
+        for node in self._valid_nodes:
+            node_name, _ = self.GetCompatName(node)
+            struct = structs[node_name]
+            for name, prop in node.props.items():
+                if name not in PROP_IGNORE_LIST and name[0] != '#':
+                    prop.Widen(struct[name])
+            upto += 1
+
+            struct_name, aliases = self.GetCompatName(node)
+            for alias in aliases:
+                self._aliases[alias] = struct_name
+
+        return structs
+
+    def ScanPhandles(self):
+        """Figure out what phandles each node uses
+
+        We need to be careful when outputing nodes that use phandles since
+        they must come after the declaration of the phandles in the C file.
+        Otherwise we get a compiler error since the phandle struct is not yet
+        declared.
+
+        This function adds to each node a list of phandle nodes that the node
+        depends on. This allows us to output things in the right order.
+        """
+        for node in self._valid_nodes:
+            node.phandles = set()
+            for pname, prop in node.props.items():
+                if pname in PROP_IGNORE_LIST or pname[0] == '#':
+                    continue
+                if type(prop.value) == list:
+                    if self.IsPhandle(prop):
+                        # Process the list as pairs of (phandle, id)
+                        it = iter(prop.value)
+                        for phandle_cell, id_cell in zip(it, it):
+                            phandle = fdt_util.fdt32_to_cpu(phandle_cell)
+                            id = fdt_util.fdt32_to_cpu(id_cell)
+                            target_node = self._phandle_node[phandle]
+                            node.phandles.add(target_node)
+
+
+    def GenerateStructs(self, structs):
+        """Generate struct defintions for the platform data
+
+        This writes out the body of a header file consisting of structure
+        definitions for node in self._valid_nodes. See the documentation in
+        README.of-plat for more information.
+        """
+        self.Out('#include <stdbool.h>\n')
+        self.Out('#include <libfdt.h>\n')
+
+        # Output the struct definition
+        for name in sorted(structs):
+            self.Out('struct %s%s {\n' % (STRUCT_PREFIX, name));
+            for pname in sorted(structs[name]):
+                prop = structs[name][pname]
+                if self.IsPhandle(prop):
+                    # For phandles, include a reference to the target
+                    self.Out('\t%s%s[%d]' % (TabTo(2, 'struct phandle_2_cell'),
+                                             Conv_name_to_c(prop.name),
+                                             len(prop.value) / 2))
+                else:
+                    ptype = TYPE_NAMES[prop.type]
+                    self.Out('\t%s%s' % (TabTo(2, ptype),
+                                         Conv_name_to_c(prop.name)))
+                    if type(prop.value) == list:
+                        self.Out('[%d]' % len(prop.value))
+                self.Out(';\n')
+            self.Out('};\n')
+
+        for alias, struct_name in self._aliases.iteritems():
+            self.Out('#define %s%s %s%s\n'% (STRUCT_PREFIX, alias,
+                                             STRUCT_PREFIX, struct_name))
+
+    def OutputNode(self, node):
+        """Output the C code for a node
+
+        Args:
+            node: node to output
+        """
+        struct_name, _ = self.GetCompatName(node)
+        var_name = Conv_name_to_c(node.name)
+        self.Buf('static struct %s%s %s%s = {\n' %
+            (STRUCT_PREFIX, struct_name, VAL_PREFIX, var_name))
+        for pname, prop in node.props.items():
+            if pname in PROP_IGNORE_LIST or pname[0] == '#':
+                continue
+            ptype = TYPE_NAMES[prop.type]
+            member_name = Conv_name_to_c(prop.name)
+            self.Buf('\t%s= ' % TabTo(3, '.' + member_name))
+
+            # Special handling for lists
+            if type(prop.value) == list:
+                self.Buf('{')
+                vals = []
+                # For phandles, output a reference to the platform data
+                # of the target node.
+                if self.IsPhandle(prop):
+                    # Process the list as pairs of (phandle, id)
+                    it = iter(prop.value)
+                    for phandle_cell, id_cell in zip(it, it):
+                        phandle = fdt_util.fdt32_to_cpu(phandle_cell)
+                        id = fdt_util.fdt32_to_cpu(id_cell)
+                        target_node = self._phandle_node[phandle]
+                        name = Conv_name_to_c(target_node.name)
+                        vals.append('{&%s%s, %d}' % (VAL_PREFIX, name, id))
+                else:
+                    for val in prop.value:
+                        vals.append(self.GetValue(prop.type, val))
+                self.Buf(', '.join(vals))
+                self.Buf('}')
+            else:
+                self.Buf(self.GetValue(prop.type, prop.value))
+            self.Buf(',\n')
+        self.Buf('};\n')
+
+        # Add a device declaration
+        self.Buf('U_BOOT_DEVICE(%s) = {\n' % var_name)
+        self.Buf('\t.name\t\t= "%s",\n' % struct_name)
+        self.Buf('\t.platdata\t= &%s%s,\n' % (VAL_PREFIX, var_name))
+        self.Buf('\t.platdata_size\t= sizeof(%s%s),\n' %
+                    (VAL_PREFIX, var_name))
+        self.Buf('};\n')
+        self.Buf('\n')
+
+        self.Out(''.join(self.GetBuf()))
+
+    def GenerateTables(self):
+        """Generate device defintions for the platform data
+
+        This writes out C platform data initialisation data and
+        U_BOOT_DEVICE() declarations for each valid node. Where a node has
+        multiple compatible strings, a #define is used to make them equivalent.
+
+        See the documentation in doc/driver-model/of-plat.txt for more
+        information.
+        """
+        self.Out('#include <common.h>\n')
+        self.Out('#include <dm.h>\n')
+        self.Out('#include <dt-structs.h>\n')
+        self.Out('\n')
+        nodes_to_output = list(self._valid_nodes)
+
+        # Keep outputing nodes until there is none left
+        while nodes_to_output:
+            node = nodes_to_output[0]
+            # Output all the node's dependencies first
+            for req_node in node.phandles:
+                if req_node in nodes_to_output:
+                    self.OutputNode(req_node)
+                    nodes_to_output.remove(req_node)
+            self.OutputNode(node)
+            nodes_to_output.remove(node)
diff --git a/tools/dtoc/dtoc.py b/tools/dtoc/dtoc.py
index 79779477d9..8fc717a92d 100755
--- a/tools/dtoc/dtoc.py
+++ b/tools/dtoc/dtoc.py
@@ -26,417 +26,15 @@ options. For more information about the use of this 
options and tool please
 see doc/driver-model/of-plat.txt
 """
 
-import copy
-from optparse import OptionError, OptionParser
+from optparse import OptionParser
 import os
-import struct
 import sys
 
 # Bring in the patman libraries
 our_path = os.path.dirname(os.path.realpath(__file__))
 sys.path.append(os.path.join(our_path, '../patman'))
 
-import fdt
-import fdt_util
-
-# When we see these properties we ignore them - i.e. do not create a structure 
member
-PROP_IGNORE_LIST = [
-    '#address-cells',
-    '#gpio-cells',
-    '#size-cells',
-    'compatible',
-    'linux,phandle',
-    "status",
-    'phandle',
-    'u-boot,dm-pre-reloc',
-    'u-boot,dm-tpl',
-    'u-boot,dm-spl',
-]
-
-# C type declarations for the tyues we support
-TYPE_NAMES = {
-    fdt.TYPE_INT: 'fdt32_t',
-    fdt.TYPE_BYTE: 'unsigned char',
-    fdt.TYPE_STRING: 'const char *',
-    fdt.TYPE_BOOL: 'bool',
-};
-
-STRUCT_PREFIX = 'dtd_'
-VAL_PREFIX = 'dtv_'
-
-def Conv_name_to_c(name):
-    """Convert a device-tree name to a C identifier
-
-    Args:
-        name:   Name to convert
-    Return:
-        String containing the C version of this name
-    """
-    str = name.replace('@', '_at_')
-    str = str.replace('-', '_')
-    str = str.replace(',', '_')
-    str = str.replace('.', '_')
-    str = str.replace('/', '__')
-    return str
-
-def TabTo(num_tabs, str):
-    if len(str) >= num_tabs * 8:
-        return str + ' '
-    return str + '\t' * (num_tabs - len(str) // 8)
-
-class DtbPlatdata:
-    """Provide a means to convert device tree binary data to platform data
-
-    The output of this process is C structures which can be used in space-
-    constrained encvironments where the ~3KB code overhead of device tree
-    code is not affordable.
-
-    Properties:
-        fdt: Fdt object, referencing the device tree
-        _dtb_fname: Filename of the input device tree binary file
-        _valid_nodes: A list of Node object with compatible strings
-        _options: Command-line options
-        _phandle_node: A dict of nodes indexed by phandle number (1, 2...)
-        _outfile: The current output file (sys.stdout or a real file)
-        _lines: Stashed list of output lines for outputting in the future
-        _phandle_node: A dict of Nodes indexed by phandle (an integer)
-    """
-    def __init__(self, dtb_fname, options):
-        self._dtb_fname = dtb_fname
-        self._valid_nodes = None
-        self._options = options
-        self._phandle_node = {}
-        self._outfile = None
-        self._lines = []
-        self._aliases = {}
-
-    def SetupOutput(self, fname):
-        """Set up the output destination
-
-        Once this is done, future calls to self.Out() will output to this
-        file.
-
-        Args:
-            fname: Filename to send output to, or '-' for stdout
-        """
-        if fname == '-':
-            self._outfile = sys.stdout
-        else:
-            self._outfile = open(fname, 'w')
-
-    def Out(self, str):
-        """Output a string to the output file
-
-        Args:
-            str: String to output
-        """
-        self._outfile.write(str)
-
-    def Buf(self, str):
-        """Buffer up a string to send later
-
-        Args:
-            str: String to add to our 'buffer' list
-        """
-        self._lines.append(str)
-
-    def GetBuf(self):
-        """Get the contents of the output buffer, and clear it
-
-        Returns:
-            The output buffer, which is then cleared for future use
-        """
-        lines = self._lines
-        self._lines = []
-        return lines
-
-    def GetValue(self, type, value):
-        """Get a value as a C expression
-
-        For integers this returns a byte-swapped (little-endian) hex string
-        For bytes this returns a hex string, e.g. 0x12
-        For strings this returns a literal string enclosed in quotes
-        For booleans this return 'true'
-
-        Args:
-            type: Data type (fdt_util)
-            value: Data value, as a string of bytes
-        """
-        if type == fdt.TYPE_INT:
-            return '%#x' % fdt_util.fdt32_to_cpu(value)
-        elif type == fdt.TYPE_BYTE:
-            return '%#x' % ord(value[0])
-        elif type == fdt.TYPE_STRING:
-            return '"%s"' % value
-        elif type == fdt.TYPE_BOOL:
-            return 'true'
-
-    def GetCompatName(self, node):
-        """Get a node's first compatible string as a C identifier
-
-        Args:
-            node: Node object to check
-        Return:
-            C identifier for the first compatible string
-        """
-        compat = node.props['compatible'].value
-        aliases = []
-        if type(compat) == list:
-            compat, aliases = compat[0], compat[1:]
-        return Conv_name_to_c(compat), [Conv_name_to_c(a) for a in aliases]
-
-    def ScanDtb(self):
-        """Scan the device tree to obtain a tree of notes and properties
-
-        Once this is done, self.fdt.GetRoot() can be called to obtain the
-        device tree root node, and progress from there.
-        """
-        self.fdt = fdt.FdtScan(self._dtb_fname)
-
-    def ScanNode(self, root):
-        for node in root.subnodes:
-            if 'compatible' in node.props:
-                status = node.props.get('status')
-                if (not self._options.include_disabled and not status or
-                    status.value != 'disabled'):
-                    self._valid_nodes.append(node)
-                    phandle_prop = node.props.get('phandle')
-                    if phandle_prop:
-                        phandle = phandle_prop.GetPhandle()
-                        self._phandle_node[phandle] = node
-
-            # recurse to handle any subnodes
-            self.ScanNode(node);
-
-    def ScanTree(self):
-        """Scan the device tree for useful information
-
-        This fills in the following properties:
-            _phandle_node: A dict of Nodes indexed by phandle (an integer)
-            _valid_nodes: A list of nodes we wish to consider include in the
-                platform data
-        """
-        self._phandle_node = {}
-        self._valid_nodes = []
-        return self.ScanNode(self.fdt.GetRoot());
-
-        for node in self.fdt.GetRoot().subnodes:
-            if 'compatible' in node.props:
-                status = node.props.get('status')
-                if (not self._options.include_disabled and not status or
-                    status.value != 'disabled'):
-                    node_list.append(node)
-                    phandle_prop = node.props.get('phandle')
-                    if phandle_prop:
-                        phandle = phandle_prop.GetPhandle()
-                        self._phandle_node[phandle] = node
-
-        self._valid_nodes = node_list
-
-    def IsPhandle(self, prop):
-        """Check if a node contains phandles
-
-        We have no reliable way of detecting whether a node uses a phandle
-        or not. As an interim measure, use a list of known property names.
-
-        Args:
-            prop: Prop object to check
-        Return:
-            True if the object value contains phandles, else False
-        """
-        if prop.name in ['clocks']:
-            return True
-        return False
-
-    def ScanStructs(self):
-        """Scan the device tree building up the C structures we will use.
-
-        Build a dict keyed by C struct name containing a dict of Prop
-        object for each struct field (keyed by property name). Where the
-        same struct appears multiple times, try to use the 'widest'
-        property, i.e. the one with a type which can express all others.
-
-        Once the widest property is determined, all other properties are
-        updated to match that width.
-        """
-        structs = {}
-        for node in self._valid_nodes:
-            node_name, _ = self.GetCompatName(node)
-            fields = {}
-
-            # Get a list of all the valid properties in this node.
-            for name, prop in node.props.items():
-                if name not in PROP_IGNORE_LIST and name[0] != '#':
-                    fields[name] = copy.deepcopy(prop)
-
-            # If we've seen this node_name before, update the existing struct.
-            if node_name in structs:
-                struct = structs[node_name]
-                for name, prop in fields.items():
-                    oldprop = struct.get(name)
-                    if oldprop:
-                        oldprop.Widen(prop)
-                    else:
-                        struct[name] = prop
-
-            # Otherwise store this as a new struct.
-            else:
-                structs[node_name] = fields
-
-        upto = 0
-        for node in self._valid_nodes:
-            node_name, _ = self.GetCompatName(node)
-            struct = structs[node_name]
-            for name, prop in node.props.items():
-                if name not in PROP_IGNORE_LIST and name[0] != '#':
-                    prop.Widen(struct[name])
-            upto += 1
-
-            struct_name, aliases = self.GetCompatName(node)
-            for alias in aliases:
-                self._aliases[alias] = struct_name
-
-        return structs
-
-    def ScanPhandles(self):
-        """Figure out what phandles each node uses
-
-        We need to be careful when outputing nodes that use phandles since
-        they must come after the declaration of the phandles in the C file.
-        Otherwise we get a compiler error since the phandle struct is not yet
-        declared.
-
-        This function adds to each node a list of phandle nodes that the node
-        depends on. This allows us to output things in the right order.
-        """
-        for node in self._valid_nodes:
-            node.phandles = set()
-            for pname, prop in node.props.items():
-                if pname in PROP_IGNORE_LIST or pname[0] == '#':
-                    continue
-                if type(prop.value) == list:
-                    if self.IsPhandle(prop):
-                        # Process the list as pairs of (phandle, id)
-                        it = iter(prop.value)
-                        for phandle_cell, id_cell in zip(it, it):
-                            phandle = fdt_util.fdt32_to_cpu(phandle_cell)
-                            id = fdt_util.fdt32_to_cpu(id_cell)
-                            target_node = self._phandle_node[phandle]
-                            node.phandles.add(target_node)
-
-
-    def GenerateStructs(self, structs):
-        """Generate struct defintions for the platform data
-
-        This writes out the body of a header file consisting of structure
-        definitions for node in self._valid_nodes. See the documentation in
-        README.of-plat for more information.
-        """
-        self.Out('#include <stdbool.h>\n')
-        self.Out('#include <libfdt.h>\n')
-
-        # Output the struct definition
-        for name in sorted(structs):
-            self.Out('struct %s%s {\n' % (STRUCT_PREFIX, name));
-            for pname in sorted(structs[name]):
-                prop = structs[name][pname]
-                if self.IsPhandle(prop):
-                    # For phandles, include a reference to the target
-                    self.Out('\t%s%s[%d]' % (TabTo(2, 'struct phandle_2_cell'),
-                                             Conv_name_to_c(prop.name),
-                                             len(prop.value) / 2))
-                else:
-                    ptype = TYPE_NAMES[prop.type]
-                    self.Out('\t%s%s' % (TabTo(2, ptype),
-                                         Conv_name_to_c(prop.name)))
-                    if type(prop.value) == list:
-                        self.Out('[%d]' % len(prop.value))
-                self.Out(';\n')
-            self.Out('};\n')
-
-        for alias, struct_name in self._aliases.iteritems():
-            self.Out('#define %s%s %s%s\n'% (STRUCT_PREFIX, alias,
-                                             STRUCT_PREFIX, struct_name))
-
-    def OutputNode(self, node):
-        """Output the C code for a node
-
-        Args:
-            node: node to output
-        """
-        struct_name, _ = self.GetCompatName(node)
-        var_name = Conv_name_to_c(node.name)
-        self.Buf('static struct %s%s %s%s = {\n' %
-            (STRUCT_PREFIX, struct_name, VAL_PREFIX, var_name))
-        for pname, prop in node.props.items():
-            if pname in PROP_IGNORE_LIST or pname[0] == '#':
-                continue
-            ptype = TYPE_NAMES[prop.type]
-            member_name = Conv_name_to_c(prop.name)
-            self.Buf('\t%s= ' % TabTo(3, '.' + member_name))
-
-            # Special handling for lists
-            if type(prop.value) == list:
-                self.Buf('{')
-                vals = []
-                # For phandles, output a reference to the platform data
-                # of the target node.
-                if self.IsPhandle(prop):
-                    # Process the list as pairs of (phandle, id)
-                    it = iter(prop.value)
-                    for phandle_cell, id_cell in zip(it, it):
-                        phandle = fdt_util.fdt32_to_cpu(phandle_cell)
-                        id = fdt_util.fdt32_to_cpu(id_cell)
-                        target_node = self._phandle_node[phandle]
-                        name = Conv_name_to_c(target_node.name)
-                        vals.append('{&%s%s, %d}' % (VAL_PREFIX, name, id))
-                else:
-                    for val in prop.value:
-                        vals.append(self.GetValue(prop.type, val))
-                self.Buf(', '.join(vals))
-                self.Buf('}')
-            else:
-                self.Buf(self.GetValue(prop.type, prop.value))
-            self.Buf(',\n')
-        self.Buf('};\n')
-
-        # Add a device declaration
-        self.Buf('U_BOOT_DEVICE(%s) = {\n' % var_name)
-        self.Buf('\t.name\t\t= "%s",\n' % struct_name)
-        self.Buf('\t.platdata\t= &%s%s,\n' % (VAL_PREFIX, var_name))
-        self.Buf('\t.platdata_size\t= sizeof(%s%s),\n' %
-                    (VAL_PREFIX, var_name))
-        self.Buf('};\n')
-        self.Buf('\n')
-
-        self.Out(''.join(self.GetBuf()))
-
-    def GenerateTables(self):
-        """Generate device defintions for the platform data
-
-        This writes out C platform data initialisation data and
-        U_BOOT_DEVICE() declarations for each valid node. Where a node has
-        multiple compatible strings, a #define is used to make them equivalent.
-
-        See the documentation in doc/driver-model/of-plat.txt for more
-        information.
-        """
-        self.Out('#include <common.h>\n')
-        self.Out('#include <dm.h>\n')
-        self.Out('#include <dt-structs.h>\n')
-        self.Out('\n')
-        nodes_to_output = list(self._valid_nodes)
-
-        # Keep outputing nodes until there is none left
-        while nodes_to_output:
-            node = nodes_to_output[0]
-            # Output all the node's dependencies first
-            for req_node in node.phandles:
-                if req_node in nodes_to_output:
-                    self.OutputNode(req_node)
-                    nodes_to_output.remove(req_node)
-            self.OutputNode(node)
-            nodes_to_output.remove(node)
+import dtb_platdata
 
 
 if __name__ != "__main__":
@@ -454,7 +52,7 @@ parser.add_option('-o', '--output', action='store', 
default='-',
 if not args:
     raise ValueError('Please specify a command: struct, platdata')
 
-plat = DtbPlatdata(options.dtb_file, options)
+plat = dtb_platdata.DtbPlatdata(options.dtb_file, options)
 plat.ScanDtb()
 plat.ScanTree()
 plat.SetupOutput(options.output)
-- 
2.13.1.518.g3df882009-goog

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