Skip to content
Snippets Groups Projects

Compare revisions

Changes are shown as if the source revision was being merged into the target revision. Learn more about comparing revisions.

Source

Select target project
No results found
Select Git revision
  • 0x4A6F-master
  • 0x4A6F-rpi4
  • autinerd/experimental-openwrt-24.10
  • experimental
  • feature/addMikrotikwAP
  • master
  • nrb/airmax-test
  • nrb/ar9344-reset-sequence
  • nrb/ex400-remove-wps
  • nrb/gluon-master-cpe510
  • nrb/test-radv-filter
  • nrbffs/fastd-remove-delay
  • nrbffs/netgear-ex6120
  • v2018.2.2-ffs
  • v2018.2.3-ffs
  • v2019.1-ffs
  • v2019.1.1-ffs
  • v2019.1.2-ffs
  • v2020.1-ffs
  • v2020.1.1-ffs
  • v2020.1.3-ffs
  • v2020.2-ffs
  • v2020.2.1-ffs
  • v2020.2.2-ffs
  • v2020.2.3-ffs
  • v2021.1-ffs
  • v2021.1.1-ffs
  • v2021.1.2-ffs
  • v2022.1.1-ffs
  • v2022.1.3-ffs
  • v2022.1.4-ffs
  • v2023.1-ffs
  • v2023.2-ffs
  • v2023.2.2-ffs
  • v2023.2.3-ffs
  • v2023.2.4-ffs
  • experimental-2022-09-24
  • experimental-2022-09-24-base
  • experimental-2023-03-11
  • experimental-2023-03-11-base
  • experimental-2023-03-12
  • experimental-2023-03-12-base
  • experimental-2023-03-16
  • experimental-2023-03-16-base
  • experimental-2023-03-20
  • experimental-2023-03-20-base
  • experimental-2023-03-23
  • experimental-2023-03-23-base
  • experimental-2023-03-25
  • experimental-2023-03-25-base
  • experimental-2023-03-26
  • experimental-2023-03-26-base
  • experimental-2023-03-30
  • experimental-2023-03-30-base
  • experimental-2023-03-31
  • experimental-2023-03-31-base
  • experimental-2023-04-01
  • experimental-2023-04-01-base
  • experimental-2023-04-08
  • experimental-2023-04-08-base
  • experimental-2023-04-10
  • experimental-2023-04-10-base
  • experimental-2023-04-13
  • experimental-2023-04-13-base
  • experimental-2023-04-15
  • experimental-2023-04-15-base
  • experimental-2023-04-16
  • experimental-2023-04-16-base
  • experimental-2023-04-18
  • experimental-2023-04-18-base
  • experimental-2023-04-20
  • experimental-2023-04-20-base
  • experimental-2023-04-26
  • experimental-2023-04-26-base
  • experimental-2023-04-28
  • experimental-2023-04-28-base
  • experimental-2023-04-30
  • experimental-2023-04-30-base
  • experimental-2023-05-02
  • experimental-2023-05-02-base
  • experimental-2023-05-03
  • experimental-2023-05-03-base
  • experimental-2023-05-12
  • experimental-2023-05-12-base
  • experimental-2023-05-21
  • experimental-2023-05-21-base
  • experimental-2023-05-25
  • experimental-2023-05-25-base
  • experimental-2023-07-02
  • experimental-2023-07-02-base
  • experimental-2023-07-04
  • experimental-2023-07-04-base
  • experimental-2023-07-12
  • experimental-2023-07-12-base
  • experimental-2023-07-16
  • experimental-2023-07-16-base
  • experimental-2023-08-04
  • experimental-2023-08-04-base
  • experimental-2023-08-10
  • experimental-2023-08-10-base
  • experimental-2023-09-08
  • experimental-2023-09-08-base
  • experimental-2023-09-09
  • experimental-2023-09-09-base
  • experimental-2023-09-10
  • experimental-2023-09-10-base
  • experimental-2023-09-11
  • experimental-2023-09-11-base
  • experimental-2023-09-12
  • experimental-2023-09-12-base
  • experimental-2023-09-13
  • experimental-2023-09-13-base
  • experimental-2023-09-15
  • experimental-2023-09-15-base
  • experimental-2023-09-16
  • experimental-2023-09-16-base
  • experimental-2023-09-18
  • experimental-2023-09-18-base
  • experimental-2023-09-20
  • experimental-2023-09-20-base
  • experimental-2023-09-27
  • experimental-2023-09-27-base
  • experimental-2023-09-28
  • experimental-2023-09-28-base
  • experimental-2023-09-29
  • experimental-2023-09-29-base
  • experimental-2023-10-02
  • experimental-2023-10-02-base
  • experimental-2023-10-13
  • experimental-2023-10-13-base
  • experimental-2023-10-14
  • experimental-2023-10-14-base
  • experimental-2023-10-16
  • experimental-2023-10-16-base
  • experimental-2023-10-23
  • experimental-2023-10-23-base
136 results

Target

Select target project
  • firmware/gluon
  • 0x4A6F/gluon
  • patrick/gluon
3 results
Select Git revision
  • 0x4A6F-master
  • 0x4A6F-rpi4
  • 2014.3.x
  • 2014.4.x
  • babel
  • experimental
  • hoodselector
  • master
  • nrb/gluon-master-cpe510
  • nrb/test-radv-filter
  • nrbffs/fastd-remove-delay
  • nrbffs/netgear-ex6120
  • radv-filterd
  • v2015.1.x
  • v2016.1.x
  • v2016.2.4-batmanbug
  • v2016.2.x
  • v2018.2.2-ffs
  • v2018.2.3-ffs
  • v2018.2.x
  • v2019.1-ffs
  • v2019.1.1-ffs
  • v2019.1.2-ffs
  • v2020.1-ffs
  • v2020.1.1-ffs
  • v2020.1.3-ffs
  • v2020.2-ffs
  • v2020.2.1-ffs
  • v2020.2.2-ffs
  • v2020.2.3-ffs
  • v2020.2.x
  • v2021.1-ffs
  • v2021.1.1-ffs
  • v2021.1.2-ffs
  • v2014.1
  • v2014.2
  • v2014.3
  • v2014.3.1
  • v2014.4
  • v2015.1
  • v2015.1.1
  • v2015.1.2
  • v2016.1
  • v2016.1.1
  • v2016.1.2
  • v2016.1.3
  • v2016.1.4
  • v2016.1.5
  • v2016.1.6
  • v2016.2
  • v2016.2.1
  • v2016.2.2
  • v2016.2.3
  • v2016.2.4
  • v2016.2.5
  • v2016.2.6
  • v2016.2.7
  • v2017.1
  • v2017.1.1
  • v2017.1.2
  • v2017.1.3
  • v2017.1.4
  • v2017.1.5
  • v2017.1.6
  • v2017.1.7
  • v2017.1.8
  • v2018.1
  • v2018.1.1
  • v2018.1.2
  • v2018.1.3
  • v2018.1.4
  • v2018.2
  • v2018.2-ffs0.1
  • v2018.2.1
  • v2018.2.1-ffs0.1
  • v2018.2.2-ffs0.1
  • v2018.2.3-ffs0.1
  • v2019.1-ffs0.1
  • v2019.1.1-ffs0.1
  • v2019.1.2-ffs0.1
  • v2020.1-ffs0.1
  • v2020.1.1-ffs0.1
  • v2020.1.3-ffs0.1
  • v2020.2
  • v2020.2-ffs0.1
  • v2020.2.1-ffs0.1
  • v2020.2.2-ffs0.1
  • v2020.2.3-ffs0.1
  • v2020.2.3-ffs0.2
  • v2020.2.3-ffs0.3
  • v2020.2.x-ffs0.1
  • v2021.1-ffs0.1
  • v2021.1.1-ffs0.1
  • v2021.1.1-ffs0.2
  • v2021.1.1-ffs0.3
  • v2021.1.1-ffs0.4
  • v2021.1.2-ffs0.1
  • v2021.1.2-ffs0.2
98 results
Show changes
Showing
with 1199 additions and 361 deletions
Models
======
Models are defined in the ``model`` subdirectory of a gluon-web application
(``/lib/gluon/config-mode/model`` for the config mode; the status
page does not use any models). Model support is not part of the gluon-web core
anymore, but is provided by the *gluon-web-model* package.
Each model defines one or more forms to display on a page, and how the submitted
form data is handled.
Let's start with an example:
.. code-block:: lua
local f = Form(translate('Hostname'))
local s = f:section(Section)
local o = s:option(Value, 'hostname', translate('Hostname'))
o.default = uci:get_first('system', 'system', 'hostname')
function o:write(data)
uci:set('system', uci:get_first('system', 'system'), 'hostname', data)
uci:commit('system')
end
return f
The top-level element of a model is always a *Form*, but it is also possible for
a model to return multiple forms, which are displayed one below the other.
A *Form* has one or more *Sections*, and each *Section* has different types
of options.
All of these elements have an *id*, which is used to identify them in the HTML
form and handlers. If no ID is given, numerical IDs will be assigned automatically,
but using explicitly named elements is often advisable (and it is required if a
form does not always include the same elements, i.e., some forms, sections or
options are added conditionally). IDs are hierarchical, so in the above example,
the *Value* would get the ID ``1.1.hostname`` (value *hostname* in first section
of first form).
Classes and methods
-------------------
- *Form* (*title*, *description*, *id*)
- *Form:section* (*type*, *title*, *description*, *id*)
Creates a new section of the given type (usually *Section*).
- *Form:write* ()
Is called after the form has been submitted (but only if the data is valid). It
is called last (after all options' *write* methods) and is usually used
to commit changed UCI packages.
The default implementation of *write* doesn't do anything, but it can be
overridden.
- *Section* (usually instantiated through *Form:section*)
- *Section:option* (*type*, *id*, *title*, *description*)
Creates a new option of the given type. Option types:
- *Value*: simple text entry
- *TextValue*: multiline text field
- *ListValue*: radio buttons or dropdown selection
- *DynamicList*: variable number of text entry fields
- *Flag*: checkbox
Most option types share the same properties and methods:
- *default*: default value
- *optional*: value may be empty
- *datatype*: one of the types described in :ref:`web-model-datatypes`
By default (when *datatype* is *nil*), all values are accepted.
- *state*: has one of the values *FORM_NODATA*, *FORM_VALID* and *FORM_INVALID*
when read in a form handler
An option that has not been submitted because of its dependencies will have
the state *FORM_NODATA*, *FORM_INVALID* if the submitted value is not valid
according to the set *datatype*, and *FORM_VALID* otherwise.
- *data*: can be read in form handlers to get the submitted value
- *depends* (*self*, *option*, *value*): adds a dependency on another option
The option will only be shown when the passed option has the given value. This
is mainly useful when the other value is a *Flag* or *ListValue*.
- *depends* (*self*, *deps*): adds a dependency on multiple other options
*deps* must be a table with options as keys and values as values. The option
will only be shown when all passed options have the corresponding values.
Multiple alternative dependencies can be added by calling *depends* repeatedly.
- *value* (*self*, *value*, *text*): adds a choice to a *ListValue*
- *write* (*self*, *data*): is called with the submitted value when all form data is valid.
Does not do anything by default, but can be overridden.
The *default* value, the *value* argument to *depends* and the output *data* always have
the same type, which is usually a string (or *nil* for optional values). Exceptions
are:
- *Flag* uses boolean values
- *DynamicList* uses a table of strings
Despite its name, the *datatype* setting does not affect the returned value type,
but only defines a validator the check the submitted value with.
For a more complete example that actually makes use of most of these features,
have a look at the model of the *gluon-web-network* package.
.. _web-model-datatypes:
Data types
----------
- *integer*: an integral number
- *uinteger*: an integral number greater than or equal to zero
- *float*: a number
- *ufloat*: a number greater than or equal to zero
- *ipaddr*: an IPv4 or IPv6 address
- *ip4addr*: an IPv4 address
- *ip6addr*: an IPv6 address
- *wpakey*: a string usable as a WPA key (either between 8 and 63 characters, or 64 hex digits)
- *range* (*min*, *max*): a number in the given range (inclusive)
- *min* (*min*): a number greater than or equal to the given minimum
- *max* (*max*): a number less than or equal to the given maximum
- *irange* (*min*, *max*): an integral number in the given range (inclusive)
- *imin* (*min*): an integral number greater than or equal to the given minimum
- *imax* (*max*): an integral number less than or equal to the given maximum
- *minlength* (*min*): a string with the given minimum length
- *maxlength* (*max*): a string with the given maximum length
Differences from LuCI
---------------------
- LuCI's *SimpleForm* and *SimpleSection* are called *Form* and *Section*, respectively
- Is it not possible to add options to a *Form* directly, a *Section* must always
be created explicitly
- Many of LuCI's CBI classes have been removed, most importantly the *Map*
- The *rmempty* option attribute does not exist, use *optional* instead
- Only the described data types are supported
- Form handlers work completely differently (in particular, a *Form*'s *handle*
method should usually not be overridden in *gluon-web*)
Views
=====
The template parser reads views from the ``view`` subdirectory of a
gluon-web application (``/lib/gluon/config-mode/view`` for the config mode,
``lib/gluon/status-page/view`` for the status page).
Writing own views should usually be avoided in favour of using :doc:`model`
with their predefined views.
Views are partial HTML pages, with additional template tags that allow
to embed Lua code and translation strings. The following tags are defined:
- ``<%`` ... ``%>`` evaluates the enclosed Lua expression.
- ``<%|`` ... ``%>`` evaluates the enclosed Lua expression and prints its value.
- ``<%=`` ... ``%>`` evaluates the enclosed Lua expression and prints its value
*without escaping HTML entities*. This is useful when the value contains HTML code.
- ``<%+`` ... ``%>`` includes another template.
- ``<%:`` ... ``%>`` translates the enclosed string using the loaded i18n catalog.
- ``<%_`` ... ``%>`` translates the enclosed string *without escaping HTML entities*
in the translation. This only makes sense when the i18n catalog contains HTML code.
- ``<%#`` ... ``%>`` is a comment.
All of these also come in the whitespace-stripping variants ``<%-`` and ``-%>`` that
remove all whitespace before or after the tag.
Complex combinations of HTML and Lua code are possible, for example:
.. code-block:: text
<div>
<% if foo then %>
Content
<% end %>
</div>
Variables and functions
-----------------------
Many call sites define additional variables (for example, model templates can
access the model as *self* and a unique element ID as *id*), but the following
variables and functions should always be available for the embedded Lua code:
- *renderer*: :ref:`web-controller-template-renderer`
- *http*: :ref:`web-controller-http`
- *request*: Table containing the path components of the current page
- *url* (*path*): returns the URL for the given path, which is passed as a table of path components.
- *attr* (*key*, *value*): Returns a string of the form ``key="value"``
(with a leading space character before the key).
*value* is converted to a string (tables are serialized as JSON) and HTML entities
are escaped. Returns an empty string when *value* is *nil* or *false*.
- *include* (*template*): Includes another template.
- *node* (*path*, ...): Returns the controller node for the given page (passed as
one argument per path component).
Use ``node(unpack(request))`` to get the node for the current page.
- *pcdata* (*str*): Escapes HTML entities in the passed string.
- *urlencode* (*str*): Escapes the passed string for use in an URL.
- *translate*, *_translate*, *translatef* and *i18n*: see :doc:`i18n`
......@@ -7,30 +7,65 @@ Building Images
---------------
By default, the autoupdater is disabled (as it is usually not helpful to have unexpected updates
during development), but it can be enabled by setting the variable GLUON_BRANCH when building
to override the default branch set in the set in the site configuration.
during development), but it can be enabled by setting the variable ``GLUON_AUTOUPDATER_ENABLED`` to ``1`` when building.
It is also possible to override the default branch during build using the variable ``GLUON_AUTOUPDATER_BRANCH``.
If a default branch is set neither in *site.conf* nor via ``GLUON_AUTOUPDATER_BRANCH``, the default branch is
implementation-defined. Currently, the branch with the first name in alphabetical order is chosen.
A manifest file for the updater can be generated with `make manifest`. A signing script (using
ecdsautils) can by found in the `contrib` directory. When creating the manifest, ``GLUON_PRIORITY`` can
be set on the command line, or it can be taken from the ``site.mk``.
``ecdsautils``) can be found in the `contrib` directory. When creating the manifest, the
``PRIORITY`` value may be defined by setting ``GLUON_PRIORITY`` on the command line or in ``site.mk``.
``GLUON_PRIORITY`` defines the maximum number of days that may pass between releasing an update and installation
of the images. The update probability will start at 0 after the release time declared in the manifest file
by the variable DATE and then slowly rise up to 1 when ``GLUON_PRIORITY`` days have passed. The autoupdater checks
for updates hourly (at a random minute of the hour), but usually only updates during its run between
4am and 5am, except when the whole ``GLUON_PRIORITY`` days and another 24 hours have passed.
``GLUON_PRIORITY`` may be an integer or a decimal fraction.
If ``GLUON_RELEASE`` is passed to ``make`` explicitly or it is generated dynamically
in ``site.mk``, care must be taken to pass the same ``GLUON_RELEASE`` to ``make manifest``,
as otherwise the generated manifest will be incomplete.
Manifest format
---------------
The priority defines the maximum number of days that may pass between releasing an update and installation
of the images. The update probability will start at 0 after the release time mentioned in the manifest
and then slowly rise to 1 up to the point when the number of days given by the priority has passed.
The manifest starts with a short header, followed by the list of firmwares and signatures.
The header contains the following information:
The priority may be an integer or a decimal fraction.
.. code-block:: sh
BRANCH=stable
DATE=2020-10-07 00:00:00+02:00
PRIORITY=7
- ``BRANCH`` is the autoupdater branch name that needs to match the nodes configuration.
- ``DATE`` specifies when the time period for the update begins. Nodes will do their regular update during a random minute
between 4:00 and 4:59 am. Nodes might not always have a reliable NTP synchronization, which is why a fallback mechanism
exists, that checks for an update, and will execute if ``DATE`` is at least 24h in the past.
- ``PRIORITY`` can be configured as ``GLUON_PRIORITY`` when generating the manifest or in ``site.mk``, and defines
the number of days over which the update should be stretched out after ``DATE``. Nodes will calculate a probability
based on the time left to determine when to update.
Automated nightly builds
------------------------
A fully automated nightly build could use the following commands:
::
.. code-block:: sh
git pull
(cd site && git pull)
# git -C site pull
make update
make clean
make clean GLUON_TARGET=ath79-generic
NUM_CORES_PLUS_ONE=$(expr $(nproc) + 1)
make -j$NUM_CORES_PLUS_ONE GLUON_TARGET=ar71xx-generic GLUON_BRANCH=experimental
make manifest GLUON_BRANCH=experimental
make -j$NUM_CORES_PLUS_ONE GLUON_TARGET=ath79-generic GLUON_RELEASE=$GLUON_RELEASE \
GLUON_AUTOUPDATER_BRANCH=experimental GLUON_AUTOUPDATER_ENABLED=1
make manifest GLUON_RELEASE=$GLUON_RELEASE GLUON_AUTOUPDATER_BRANCH=experimental
contrib/sign.sh $SECRETKEY output/images/sysupgrade/experimental.manifest
rm -rf /where/to/put/this/experimental
......@@ -74,8 +109,6 @@ These commands can be used on a node:
::
# If fallback is true the updater will perform an update only if
# the timespan given by the priority and another 24h have passed
# If fallback is true the updater will perform an update only if the timespan
# PRIORITY days (as defined in the manifest) and another 24h have passed
autoupdater --fallback
docs/features/configmode.png

112 KiB

......@@ -14,10 +14,13 @@ Activating Config Mode
----------------------
Config Mode is automatically entered at the first boot. You can re-enter
Config Mode by pressing and holding the RESET/WPS button for about three
seconds. The device should reboot (all LEDs will turn of briefly) and
Config Mode by pressing and holding the RESET/WPS/DECT button for about three
seconds. The device should reboot (all LEDs will turn off briefly) and
Config Mode will be available.
If you have access to the console of the node, there is the
``gluon-enter-setup-mode`` command, which reboots a node into Config Mode.
Port Configuration
------------------
......@@ -35,3 +38,17 @@ Accessing Config Mode
Config Mode can be accessed at http://192.168.1.1. The node will offer DHCP
to clients. Should this fail, you may assign an IP from 192.168.1.0/24 to
your computer manually.
.. image:: configmode.png
Advanced Config Options
-----------------------
Depending on the installed packages, the advanced config mode allows to configure packages further.
* :doc:`gluon-web-wifi-config enable <wlan-configuration>` radios used for wifi and mesh as well as outdoor mode
* :doc:`../package/gluon-web-network` allows to configure the used roles (uplink, mesh, client) on each interface
* :doc:`../package/gluon-web-admin` allows to enter SSH keys or set a password in the `Remote access` section
* :doc:`../package/gluon-web-cellular` allows to configure SIM card / WWAN settings on supported cellular devices
The advanced config does also allow to upload a sysupgrade file to update the firmware to a different version.
.. _dns-caching:
DNS caching
===========
User experience may be greatly improved when dns is accelerated. Also, it
seems like a good idea to keep the number of packages being exchanged
between node and gateway as small as possible. In order to do this, a
DNS cache may be used on a node. The dnsmasq instance listening on port
53 on the node will be reconfigured to answer requests, use a list of
upstream servers and a specific cache size if the options listed below are
added to site.conf. Upstream servers are the DNS servers which are normally
used by the nodes to resolve hostnames (e.g. gateways/supernodes).
There are the following settings:
servers
cacheentries
To use the node's DNS server, both options should be set. The node will cache at
most 'cacheentries' many DNS records in RAM. The 'servers' list will be used to
resolve the received DNS queries if the request cannot be answered from
cache. Gateways should announce the "next node" address via DHCP and RDNSS (if
any). Note that not setting 'servers' here will lead to DNS not working: Once
the gateways all announce the "next node" address for DNS, there is no way for
nodes to automatically determine DNS servers. They have to be baked into the
firmware.
If these settings do not exist, the cache is not initialized and RAM usage will
not increase.
When next_node.name is set, an A record and an AAAA record for the
next-node IP address are placed in the dnsmasq configuration. This means that
the content of next_node.name may be resolved even without upstream connectivity.
It is suggested to use the same name as the DNS server provides:
e.g. nextnode.location.community.example.org (This way the name also works if a
client uses static DNS Servers). Hint: If next_node.name does not contain a dot
some browsers would open the searchpage instead.
::
dns = {
cacheentries = 5000,
servers = { '2001:4860:4860::8888', '2001:4860:4860::8844' },
},
next_node = {
name = { 'nextnode.location.community.example.org', 'nextnode', 'nn' },
ip6 = '2001:db8:8::1',
ip4 = '198.51.100.1',
}
Each cache entry will occupy about 90 bytes of RAM.
docs/features/fastd_mode.gif

28.1 KiB

......@@ -24,7 +24,7 @@ Information to be announced is currently split into three categories:
interfaces. This data can be used to determine the network topology.
All categories will have a ``node_id`` key. It should be used to
relate data of different catagories.
relate data of different categories.
Accessing Node Information
--------------------------
......@@ -33,7 +33,7 @@ There are two packages responsible for distribution of the information. For
one, information is distributed across the mesh using alfred_. Information
between neighbouring nodes is exchanged using `gluon-respondd`.
.. _alfred: http://www.open-mesh.org/projects/alfred
.. _alfred: https://www.open-mesh.org/projects/alfred
alfred (mesh bound)
~~~~~~~~~~~~~~~~~~~
......@@ -45,7 +45,7 @@ retrieve the data you'll need both a local alfred daemon and alfred-json_
installed. Please note that at least one alfred daemon is required to run as
`master`.
.. _alfred-json: https://github.com/tcatm/alfred-json
.. _alfred-json: https://github.com/ffnord/alfred-json
The following data types are used:
......@@ -97,14 +97,15 @@ In order to retrieve statistics data you could run:
You can find more information about alfred in its README_.
.. _README: http://www.open-mesh.org/projects/alfred/repository/revisions/master/entry/README
.. _README: https://git.open-mesh.org/alfred.git/blob_plain/refs/heads/master:/README.rst
gluon-respondd
~~~~~~~~~~~~~~
`gluon-respondd` allows querying neighbouring nodes for their information.
It is a daemon listening on the multicast address ``ff02::2:1001`` on
UDP port 1001 on both the bare mesh interfaces and `br-client`. Unicast
UDP port 1001 on the mesh interface and on the multicast address
``ff05::2:1001`` on the `br-client` interface. Unicast
requests are supported as well.
The supported requests are:
......@@ -117,13 +118,13 @@ The supported requests are:
gluon-neighbour-info
~~~~~~~~~~~~~~~~~~~~
The programm `gluon-neighbour-info` can be used to retrieve
The program `gluon-neighbour-info` can be used to retrieve
information from other nodes.
::
gluon-neighbour-info -i wlan0 \
-p 1001 -d ff02:0:0:0:0:0:2:1001 \
gluon-neighbour-info -i bat0 \
-p 1001 -d ff05:0:0:0:0:0:2:1001 \
-r nodeinfo
An optional timeout may be specified, e.g. `-t 5` (default: 3 seconds). See
......@@ -134,5 +135,5 @@ Adding a data provider
----------------------
To add a provider, you need to install a shared object into ``/lib/gluon/respondd``.
For more information, refer to the `respondd README <https://github.com/freifunk-gluon/packages/blob/master/net/respondd/README.md>`_
For more information, refer to the `respondd README <https://github.com/freifunk-gluon/packages/blob/main/net/respondd/README.md>`_
and have a look the existing providers.
This diff is collapsed.
docs/features/multidomain_configmode.gif

57.1 KiB

Private WLAN
============
It is possible to set up a private WLAN that bridges the WAN port and is seperated from the mesh network.
Please note that you should not enable ``mesh_on_wan`` simultaneously.
It is possible to set up a private WLAN that bridges the uplink port and is separated from the mesh network.
Please note that you should not enable Wired Mesh on the uplink port at the same time.
The private WLAN can be enabled through the config mode if the package ``gluon-luci-private-wifi`` is installed.
The private WLAN is encrypted using WPA2 by default. On devices with enough flash and a supported radio,
WPA3 or WPA2/WPA3 mixed-mode can be used instead of WPA2. For this to work, the ``wireless-encryption-wpa3``
feature has to be enabled as a feature.
It is recommended to enable IEEE 802.11w management frame protection for WPA2/WPA3 networks, however this
can lead to connectivity problems for older clients. In this case, management frame protection can be
made optional or completely disabled in the advanced settings tab.
The private WLAN can be enabled through the config mode if the package ``gluon-web-private-wifi`` is installed.
You may also enable a private WLAN using the command line::
uci set wireless.wan_radio0=wifi-iface
uci set wireless.wan_radio0.device=radio0
uci set wireless.wan_radio0.network=wan
uci set wireless.wan_radio0.mode=ap
uci set wireless.wan_radio0.encryption=psk2
uci set wireless.wan_radio0.ssid="$SSID"
uci set wireless.wan_radio0.key="$KEY"
uci set wireless.wan_radio0.disabled=0
RID=0
SSID="privateWLANname"
KEY="yoursecret1337password"
uci set wireless.wan_radio$RID=wifi-iface
uci set wireless.wan_radio$RID.device=radio$RID
uci set wireless.wan_radio$RID.network=wan
uci set wireless.wan_radio$RID.mode=ap
uci set wireless.wan_radio$RID.encryption=psk2
uci set wireless.wan_radio$RID.ssid="$SSID"
uci set wireless.wan_radio$RID.key="$KEY"
uci set wireless.wan_radio$RID.disabled=0
uci set wireless.wan_radio$RID.macaddr=$(lua -e "print(require('gluon.util').generate_mac(3+4*$RID))")
uci commit
wifi
......
......@@ -2,8 +2,8 @@ Roles
=====
It is possible to define a set of roles you want to distinguish at backend side. One node can own one
role which it will announce via alfred inside the mesh. This will make it easier to differentiate
nodes when parsing alfred data. E.g to count only **normal** nodes and not the gateways
role which it will announce via respondd/announced inside the mesh. This will make it easier to differentiate
nodes when parsing respondd data. E.g to count only **normal** nodes and not the gateways
or servers (nodemap). A lot of things are possible.
For this the section ``roles`` in ``site.conf`` is needed::
......@@ -18,17 +18,17 @@ For this the section ``roles`` in ``site.conf`` is needed::
},
},
The strings to display in the LuCI interface are configured per language in the
The strings to display in the web interface are configured per language in the
``i18n/en.po``, ``i18n/de.po``, etc. files of the site repository using message IDs like
``gluon-luci-node-role:role:node`` and ``gluon-luci-node-role:role:backbone``.
``gluon-web-node-role:role:node`` and ``gluon-web-node-role:role:backbone``.
The value of ``default`` is the role every node will initially own. This value should be part of ``list`` as well.
If you want node owners to change the defined roles via config-mode you can add the package
``gluon-luci-node-role`` to your ``site.mk``.
``gluon-web-node-role`` to your ``site.mk``.
The role is saved in ``gluon-node-info.system.role``. To change the role using command line do::
uci set gluon-node-info.system.role="$ROLE"
uci set gluon-node-info.@system[0].role="$ROLE"
uci commit
Please replace ``$ROLE`` by the role you want the node to own.
docs/features/status-page.png

150 KiB

This diff is collapsed.
TLS support
===========
The generic TLS implementation which is currently used by OpenWRT can be installed or added as dependency through the package ``gluon-tls``.
This removes the need for community packages to depend on a specific TLS implementation (like mbedtls, OpenSSL or WolfSSL).
This package is an alias for the current TLS implementation used.
To allow for easy usage of communicating through HTTPS from the node, typical Certificate Authorities (CAs) are included through the package ``ca-bundle`` .
* Starting with OpenWRT 23.05, mbedtls is the default TLS layer - this is reflected in Gluon :ref:`v2023.2 <releases-v2023.2-minor-changes>`. HTTPS is used by default to communicate with OpenWRT opkg servers.
This diff is collapsed.
This diff is collapsed.
This diff is collapsed.
This diff is collapsed.
This diff is collapsed.