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IG Configuration

Warning
The functionality described in this article is not available in the Community SDK edition.
You should upgrade to Sim SDK edition to use it.

All IG configuration parameters (variables such as system settings, connector parameters, date, time and weather, databases, and entity definitions) are stored by default in a single file named ig_config.xml.

Notice
You can specify another configucation file to be used via the -ig_config startup command-line argument:
Shell commands
-ig_config "my_config.xml"

A configuration file is an ordinary *.xml file with the following structure (example):

Source code (XML)
<?xml version="1.0" encoding="utf-8"?>
<ig_config>
	<variables>
		<!-- ==== ADAPTIVE QUALITY SYSTEM ======================= -->
		<group name="AdaptiveQualitySystem">
			<item name="mode" type="int">0</item>
			<item name="debug" type="int">0</item>
			<item name="sleep_period_after_world_load" type="float">-1.000000</item>
			<item name="cpu_budget" type="float">-1.000000</item>
			<item name="threshold" type="float">-1.000000</item>
			<item name="change_period" type="float">-1.000000</item>
		</group>
		<!-- ==== CONNECTOR PARAMETERS ======================= -->
		<group name="CIGIConnector">
			<item name="version" type="string">3.3</item>
			<item name="host">127.0.0.1</item>
			<item name="send_port">8889</item>
			<item name="recv_port">8888</item>
			<item name="view_id">0</item>
		</group>
		<!-- ==== CONFIGURATION FILE SETTINGS ======================= -->
		<group name="IG">
			<item name="autoload_database" type="int">-1</item>
			<item name="config_read_only" type="int">0</item>
			<item name="default_view_id" type="int">0</item>
		</group>
		<!-- ==== WEATHER SETTINGS ======================= -->
		<group name="Meteo">
			<item name="visibility_transition_time" type="float">3.000000</item>
			<item name="precipitations_transition_time" type="float">3.000000</item>
			<item name="cloud_transition_time" type="float">3.000000</item>
			<item name="visibility_tracker" type="string">ig/weather/tracks/visibility.track</item>
			<item name="overcast_preset_tracker" type="string">ig/weather/tracks/clouds_environment.track</item>
			<item name="clouds_density_tracker" type="string">ig/weather/tracks/clouds_density.track</item>
			<item name="rain" type="string">ig/weather/fx/rain_particles/nodes/rain_particles.node</item>
			<item name="snow" type="string">ig/weather/fx/snow_particles/nodes/snow_flakes.node</item>
			<item name="lightning" type="string">ig/weather/fx/lightning/nodes/lightning_particles.node</item>
		</group>
		<!-- ==== DATE AND TIME SETTINGS ======================= -->
		<group name="SkyMap">
			<item name="timezone" type="int">0</item>
			<item name="datetime" type="string">2003-12-06T10:30:00</item>
		</group>
	</variables>
	<!-- ==== DATABASE LIST ======================= -->
		<databases>
			<database id="1" world_name="world_1" geodetic_origin="25 25 0"/>
		</databases>
	<!-- ==== ENTITY DEFINITIONS ======================= -->
		<entity_types>
			<entity id="118" name="a321">
				<path>my_project/entities/aircrafts/A321/a321_air_France.node</path>
				<component id="0" name="light_outer">
					<property>LightAircraftController</property>
					<parameter name="state">enabled</parameter>
					<parameter name="data1">landing</parameter>
					<!-- ..... -->
					<parameter name="data6">logo</parameter>
				</component>
				<!-- ..... -->
				<articulated_part id="1" name="aileron">
					<node invert_pitch="1">aileron_left</node>
					<node>aileron_right</node>
				</articulated_part>
				<articulated_part id="2" name="rudder">
					<node invert_yaw="1">rudder</node>
				</articulated_part>
			</entity>
			<!-- ..... -->
		</entity_types>
	<!-- ==== VIEW TYPES LIST ===================================== -->
		<view_types>
			<view_type type="1" post_materials="post_sensor_heat"/>
			<view_type type="2" post_materials="post_sensor_green"/>
			<view_type type="3" post_materials="post_sensor_white"/>
			<view_type type="4" post_materials="post_sensor_red"/>
			<view_type type="5" post_materials="post_sensor_white,post_sensor_heat"/>
		</view_types>
	<!-- ==== CLOUD TYPES LIST ==================================== -->
		<cloud_types>
			<cloud_type type="9" name="stratocumulus" material="ig/clouds/materials/strato_cumulus.mat"/>
			<cloud_type type="10" name="stratus" material="ig/clouds/materials/stratus.mat"/>
		</cloud_types>
	<!-- =========================================== -->
		<syncker_channels>
			<channel view_id="0" use_syncker_projection="1" syncker_name="left_view"/>
			<channel view_id="1" use_syncker_projection="0" syncker_name="ground_cam"/>
		</syncker_channels>
	<!-- =========================================== -->
		<cigi_global_terrain_components>
			<component_light id="0" name="tomsk_full">CITY1/*</component_light>
			<component_light id="1" name="RWY_red_only">CITY1/RWY/RED</component_light>
			<component_light id="2" name="RWY_approach">CITY1/RWY/APPROACH/*</component_light>
		</cigi_global_terrain_components>
	<!-- =========================================== -->
	</ig_config>

Adaptive Quality System#

The variables group with the name "AdaptiveQualitySystem" contains configuration parameters of the Adaptive Quality System, which adapts the image quality if the performance decreases by increasing render_distance_scale and simplifier_distance_scale.

Source code (XML)
<group name="AdaptiveQualitySystem">
	<item name="mode" type="int">0</item>
	<item name="debug" type="int">0</item>
	<item name="sleep_period_after_world_load" type="float">-1.000000</item>
	<item name="cpu_budget" type="float">-1.000000</item>
	<item name="threshold" type="float">-1.000000</item>
	<item name="change_period" type="float">-1.000000</item>
</group>

The following items are available for the Adaptive Quality System:

  • mode — one of the modes in which the Adaptive Quality System operates:
    • 0 — to disable the system
    • 1 — to enable the system in the degrading mode (without re-improving the quality when the conditions are back to normal)
  • debug0 to disable the debug mode, 1 to enable displaying the debug info.
  • sleep_period_after_world_load — idle time of the Adaptive Quality System, in seconds, after the world is loaded.
  • cpu_budget — target CPU Total Time value, in milliseconds. -1 sets the default value of 10 milliseconds.
  • threshold — a threshold value, in milliseconds. If CPU Total Time has changed less than this value, no adaptation is performed. -1 sets the default value of 3 milliseconds.
  • change_period — update period, in seconds. -1 sets the default value of 0.5 milliseconds.

Connector Parameters#

Configuration parameters for connectors are added to the variables group with the corresponding name, e.g. CIGIConnector for CIGI-connector:

Source code (XML)
<group name="CIGIConnector">
	<item name="version" type="string">3.3</item>
	<item name="host">127.0.0.1</item>
	<item name="send_port">8889</item>
	<item name="recv_port">8888</item>
	<item name="view_id">0</item>
</group>

The following items are available for CIGI:

  • version — CIGI protocol version
  • host — CIGI Host IP-address
  • send_port — TCP port number to be used for sending packets to the CIGI Host
  • recv_port — TCP port number to be used for receiving packets from the CIGI Host
  • view_id — ID of the view to be used
  • packet_size — maximum size of the packet

The following items are available for DIS:

  • broadcast_address — a broadcast address of the server computer that is used to broadcast messages to IG over the network
  • site — the Site ID of this application instance
  • exercise — the Exercise ID of the DIS
  • app — the Application ID of this application instance
  • view_id — ID of the view to be used

Configuration File Settings#

The following parameters are available to control automatic update of the configuration file.

Source code (XML)
<group name="IG">
	<item name="autoload_database" type="int">-1</item>
	<item name="config_read_only" type="int">0</item>
	<item name="default_view_id" type="int">0</item>
</group>
  • autoload_databaseID of the database to be loaded automatically.
  • config_read_only — set this parameter to 1 to avoid automatic re-writing of the configuration file with deletion of all your comments.
  • default_view_idID of the view to be used by default.

Weather Settings#

The weather settings are added to the variables group with the name Meteo.

Source code (XML)
<group name="Meteo">
	<item name="visibility_transition_time" type="float">3.000000</item>
	<item name="precipitations_transition_time" type="float">3.000000</item>
	<item name="cloud_transition_time" type="float">3.000000</item>
	<item name="visibility_tracker" type="string">ig/weather/tracks/visibility.track</item>
	<item name="overcast_preset_tracker" type="string">ig/weather/tracks/clouds_environment.track</item>
	<item name="clouds_density_tracker" type="string">ig/weather/tracks/clouds_density.track</item>
	<item name="rain" type="string">ig/weather/fx/rain_particles/nodes/rain_particles.node</item>
	<item name="snow" type="string">ig/weather/fx/snow_particles/nodes/snow_flakes.node</item>
	<item name="lightning" type="string">ig/weather/fx/lightning/nodes/lightning_particles.node</item>
</group>

The following items are available:

  • visibility_transition_time — time, in seconds, for gradual change of visibility conditions (fog, etc.)
  • precipitations_transition_time — time, in seconds, for gradual change of precipitation
  • cloud_transition_time — time, in seconds, for gradual change of cloudiness
  • visibility_tracker — path to the .track file containing visibility transition effect
  • overcast_preset_tracker — path to the .track file containing the overcast preset
  • clouds_density_tracker — path to the .track file containing gradual change of cloudiness
  • rain — path to the node storing rain particles
  • snow — path to the node storing snowflake particles
  • lightning — path to the node storing lighting

Date and Time Settings#

The date and time settings are added to the variables group with the name SkyMap.

Source code (XML)
<group name="SkyMap">
	<item name="timezone" type="int">0</item>
	<item name="datetime" type="string">2003-12-06T10:30:00</item>
</group>

The following items are available:

  • timezone — UTC timezone, only an integer value is possible (if not set, UTC=0)
  • datetime — date and time set for the specified timezone

Databases#

The list of databases (worlds with terrains) is enclosed in the <databases/> tag. You can specify as many worlds as required.

Source code (XML)
<databases>
	<database id="1" world_name="world_1" geodetic_origin="25 25 0"/>
	<!-- ..... -->
	<database id="n" world_name="world_n" geodetic_origin="23 10 0"/>
</databases>

The following attributes are available:

  • id — ID of the database (used when loading databases)
  • world_name — name of the corresponding *.world file
  • geodetic_origin — geodetic origin in ellipsoid coordinates (latitude (degrees), longitude (degrees), and altitude (meters) ).

Entity Definitions#

An IG has a number of models, that are used to represent certain entities in the virtual environment. Entity definition section is enclosed in the <entity_types/> tag. To define each entity, the <entity/> tag is used.

Notice
id and name indicated within the <entity/> tag are referred to the type of the entity, not to its instances.

Each entity includes the following:

  • a *.node file containing the hierarchy of nodes representing the entity in the virtual world. A path to this file is specified in the <path/> tag.
  • a set of components (flashing lights, aircraft propellers, afterburners, landing gear, tank tracks, wheels, and like items). Definition of each component is enclosed in the <component/> tag.
    Notice
    Component data in packets, received by IG from connectors, is usually represented as a set of a discrete state and up to six values (data1, data2 ... data6). IG component definitions in this section are actually used to map parameters from connectors to corresponding properties (e.g. data1 field of the outer_light component in the example below corresponds to landing light type).
  • a set of articulated parts (ailerons, flaps, etc.). Definition of each articulated part is enclosed in the <articulated_part/> tag.

Click to enlarge

Below is an example of entity definition section:

Source code (XML)
<entity_types>
	<entity id="111" name="b52">
		<path>my_project/entities/aircrafts/B52/b52.node</path>
		<component id="0" name="light_outer">
			<property>LightAircraftController</property>
			<parameter name="state">enabled</parameter>
			<parameter name="data1">landing</parameter>
			<!-- ..... -->
			<parameter name="data6">logo</parameter>
		</component>
		<!-- ..... -->
		<articulated_part id="1" name="aileron">
			<node invert_pitch="1">aileron_left</node>
			<node>aileron_right</node>
		</articulated_part>
		<articulated_part id="2" name="rudder">
			<node invert_yaw="1">rudder</node>
		</articulated_part>
	</entity>
	<!-- ..... -->

Components#

Each entity may have an arbitrary number of components assigned, including custom ones. To define a component of an entity use the <component/> tag:

Source code (XML)
<!-- ..... -->
	<entity id="118" name="a321">
		<path>my_project/entities/aircrafts/A321/a321_air_France.node</path>
		<!-- ..... -->
		<component id="22" name="rotorwash">
			<property>rotorwash</property>
			<parameter name="data1">wind_percent</parameter>
			<parameter name="data2">sand_percent</parameter>
		</component>
		<!-- ..... -->
	</entity>
<!-- ..... -->

Components are added to entities by means of assigning corresponding properties to nodes. By default it is assumed that all properties corresponding to components are assigned to the root node. In fact, a component's property can be assigned to any node in entity's hierarchy. For such a component you should add the <node/> tag to specify a path to this node (the path is specified relative to the root node):

Source code (XML)
<!-- ..... -->
	<entity id="118" name="a321">
		<path>my_project/a321_air_France.node</path>
		<!-- ..... -->
		<component id="22" name="rotorwash">
			<property>rotorwash</property>
			<node>path_to_node</node>
			<parameter name="data1">wind_percent</parameter>
			<parameter name="data2">sand_percent</parameter>
		</component>
		<!-- ..... -->
	</entity>
<!-- ..... -->

Notice
You can also specify a path to a node inside a NodeReference as follows:
  • <node>path_to_node_reference/^/path_inside_nodereference</node>

Example:
Suppose for a hierarchy shown below we have the comp1 component's property assigned to the aileron_left node, and comp2 component's property assigned to the engine_1_fire node. Definition of components will look like:

Source code (XML)
<entity id="118" name="a321">
	<path>my_project/a321_air_France.node</path>
	<component id="1" name="comp1">
		<property>comp1</property>
		<node>aileron_left</node>
		<parameter name="param1">param_1</parameter>
		<!-- ..... -->
	</component>
	<component id="2" name="comp2">
		<property>comp1</property>
		<node>effects/^/engine_1_fire</node>
		<parameter name="param1">param_1</parameter>
		<!-- ..... -->
	</component>
	<!-- ..... -->
</entity>

Articulated Parts#

Each entity may have an arbitrary number of articulated parts (e.g. flaps, slats, etc.). To define an articulated part of an entity use the <articulated_part/> tag:

Source code (XML)
<entity_types>
	<entity id="111" name="b52">
		<path>my_project/entities/aircrafts/B52/b52.node</path>
		<!-- ..... -->
		<articulated_part id="1" name="aileron">
			<node invert_pitch="1">aileron_left</node>
			<node>aileron_right</node>
		</articulated_part>
		<articulated_part id="2" name="rudder">
			<node invert_yaw="1">rudder</node>
		</articulated_part>
	</entity>
	<!-- ..... -->
Notice
Options invert_roll, invert_pitch, and invert_yaw are used to indicate that the corresponding rotation direction (Y — roll, X — pitch, Z — yaw) of the articulated part element is inverted.

For each articulated part a corresponding node should be specified using the <node/> tag. Paths are specified relative to the root node, the same way as for components.

Notice
You can also specify a path to a node inside a NodeReference as follows:
  • <node>path_to_node_reference/^/path_inside_nodereference</node>

Cloud Types#

The list of available cloud types is enclosed in the <cloud_types/> tag. The cloud type can be set via HEMU / IG Host, or using the setCloudTypeByEnum() method.

Source code (XML)
<cloud_types>
	<cloud_type type="9" name="stratocumulus" material="ig/clouds/materials/strato_cumulus.mat"/>
	<cloud_type type="10" name="stratus" material="ig/clouds/materials/stratus.mat"/>
</cloud_types>

The following attributes are available:

  • type — type of clouds
  • name — name of the cloud type
  • material — material to be used

Cameras#

Cameras in IG are synchronized in a special way. A View is an IG wrapper for the Camera, so you can manage a camera via the View only. IG has the following methods to set the desired view for a Slave:

  • void setCurrentView(int view_id);
  • void setSlaveView(int slave_index, int view_id);

The list of available views is enclosed in the <syncker_channels/> tag. Here you can set the desired view for each Slave and specify if it is affected by the Syncker’s projections:

Source code (XML)
<syncker_channels>
	<channel view_id="0" use_syncker_projection="1" syncker_name="center_view"/>
	<channel view_id="1" use_syncker_projection="1" syncker_name="left_view"/>
	<channel view_id="2" use_syncker_projection="0" syncker_name="ground_cam"/>
</syncker_channels>

The following attributes are available:

  • view_id — ID of the view to be used
  • use_syncker_projection — flag indicating if the view is affected by the Syncker’s projections
  • syncker_name — name of the view used in the Syncker

View Types#

The list of post effect materials available for the camera is enclosed in the <view_types/> tag. The view type can be set via HEMU / IG Host, or using the setViewType() method.

Source code (XML)
<view_types>
	<view_type type="1" post_materials="post_sensor_heat"/>
	<view_type type="2" post_materials="post_sensor_green"/>
	...
</view_types>

The following attributes are available:

  • id — ID of the database (used when loading databases)
  • post_materials — list of post effects to be applied
Last update: 19.12.2020
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