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2e0d1961 by Michael B. Mathews
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Refactored HPE and Spatial Types plus added events definition

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Showing 15 changed files with 2588 additions and 15 deletions
GeoSpatial/V1.0/Events.xid.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="GeoObjectStoreApi.xid.xml">
<title>GeoObject Storage API</title>
<comment>
This file defines the GeoObject Storage interface(s), which provides interactions for editing, searching, and retrieving various Geo Objects.
</comment>
<!-- Include all known definitions -->
<import ref="https://xid.location.studio/Tensor/V1.0.0/Definitions.xid.xml" />
<import ref="https://xid.location.studio/Tensor/V1.0.0/ApiBase.xid.xml" />
<import ref="http://xid.location.studio/GeoSpatial/V1.0/Location.xid.xml" local="Location.xid.xml" />
<namespace name="GeoSpatial">
<using namespace="Tensor"/>
<!--
*************************************
* Event Structures
*************************************
-->
<struct name="ProducerInfo" type="Object" rttkey="GeoSpatial.ObjectType.ProducerInfo">
<elem name="events" type="Object" multiplicity="0..*" ord="21">
<comment>Events defined by this producer.</comment>
</elem>
</struct>
<struct name="Event">
<comment>Structure contains information about an event occurring at the specified event producer (uriProducer).</comment>
<struct name="SpeedInfo" packed="true">
<comment>Structure contains speed information of the object.</comment>
<elem name="horizontal" type="float32" multiplicity="1" ord ="1">
<tag name="unit" value="meters/sec"/>
<comment>Optional horizontal speed of device in meters/sec</comment>
</elem>
<elem name="vertical" type="float32" multiplicity="1" ord ="2">
<tag name="unit" value="meters/sec"/>
<comment>Optional vertical speed of device in meters/sec</comment>
</elem>
<elem name="azimuth" type="float32" multiplicity="1" ord ="3">
<tag name="unit" value="degrees"/>
<comment>Optional azimuthal heading of the associated object in degrees (true North).</comment>
</elem>
<elem name="uncertainty" type="float32" multiplicity="1" default="-1" ord ="4">
<tag name="unit" value="degrees"/>
<comment>Optional azimuthal heading of the associated object in degrees (true North).</comment>
</elem>
</struct>
<elem name="infoEvent" type="Object" multiplicity="1" ord ="1">
<comment>Event definitional information. This describes the nature of the event. Event information can be a copy
of the information specified by the producer or a minimum subset of identifiers (e.g. uuid, uriExternal, uriClassifier).
The amount of event information provided is application specific.
</comment>
</elem>
<elem name="infoProducer" type="ProducerInfo" multiplicity="1" ord ="2">
<comment>
Producer information. This describes the producer sending the information. Typically this is just the top level of producer
information, the events contained are not typically provided as the event information is provided
separately. Exact information provided is application specific.
</comment>
</elem>
<elem name="uuid" type="Tensor.UUID" multiplicity="1" ord="3">
<comment>Instance UUID for the Event, Every event must specify a UUID associated with its unique time and place.</comment>
</elem>
<elem name="epoch" type="datetime" multiplicity="1" ord="4">
<comment>Epoch defines the point in time for which the estimate applies.</comment>
</elem>
<elem name="location" type="Location" multiplicity="0..1" ord="5">
<comment>Optional location the event occurred.</comment>
</elem>
<elem name="speed" type="SpeedInfo" multiplicity="0..1" ord="6">
<comment>Optional speed information of the associated object at the time the event occurred.</comment>
</elem>
</struct>
<!--
*******************************************************
EventProducer API
*******************************************************
-->
<interface name="EventProducer">
<comment>Interface defines the interactions common to all event producers. </comment>
<operation name="RequestInfo">
<comment>
Interaction requests and returns a zero or more information sets of producer information containing
zero or more events
</comment>
<input name="input" type="InputBase" sid="0x1090">
</input>
<output name="output" type="OutputBase" sid="0x1091">
<elem name="producer" multiplicity="0..*" type="ProducerInfo"></elem>
</output>
</operation>
<event name="Notify">
<comment>Notifies bound event consumers of one or more events specified by the EventProducer.</comment>
<input name="input" type="InputBase" sid="0x1092">
<elem name="event" multiplicity="1..*" type="Event"></elem>
</input>
</event>
</interface>
</namespace>
</specification>
GeoSpatial/V1.0/GeoFence.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="GeoFence.xid.xml">
<title>GeoFence Definition</title>
<!-- Include all known definitions -->
<import ref="http://xid.location.studio/Tensor/V1.0.0/GeoObject.xid.xml" local="GeoObject.xid.xml" />
<namespace name="GeoSpatial">
<using namespace="Tensor"/>
<!--
*************************************
* GeoFence Definition
*************************************
-->
<struct name="GeoFence" rttkey="GeoSpatial.ObjectType.GeoFence">
<comment>Defines a geofence based on a geo object adding additional parameters supporting geo-spatial services.</comment>
<elem name="type" type="ObjectType" multiplicity="1" rttd="true">
<comment>identify the type of the GeoObject</comment>
</elem>
<elem name="dtCreate" type="datetime" multiplicity="1" ord="21">
<comment>Time stamp of creation</comment>
</elem>
<elem name="dtUpdate" type="datetime" multiplicity="1" ord="22">
<comment>Time stamp of last modification</comment>
</elem>
<elem name="account" type="Tensor.uri" multiplicity="1" ord="24">
<comment>URI identifies account information for the GeoObject.</comment>
</elem>
<elem name="group" type="Tensor.uri" multiplicity="1" ord="25">
<comment>URI identifies group information for the GeoObject.</comment>
</elem>
<elem name="source" type="Tensor.uri" multiplicity="1" ord="23">
<comment>URI identifies the source of the information provided.</comment>
</elem>
</struct>
</namespace>
</specification>
GeoSpatial/V1.0/GeoObject.xid.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="GeoObject.xid.xml">
<title>Common Geo Object Definitions. </title>
<comment>This file defines commonly used structures and enumerations used throughout the GeoTracker system.</comment>
<!-- Include all known definitions -->
<import ref="http://xid.location.studio/Tensor/V1.0.0/Definitions.xid.xml" local="Definitions.xid.xml" />
<import ref="http://xid.location.studio/GeoSpatial/V1.0/SpatialDefs.xid.xml" local="SpatialDefs.xid.xml" />
<import ref="http://xid.location.studio/GeoSpatial/V1.0/Address.xid.xml" local="Address.xid.xml" />
<import ref="http://xid.location.studio/GeoSpatial/V1.0/Shape.xid.xml" local="Shape.xid.xml" />
<namespace name="GeoSpatial">
<using namespace="Tensor"/>
<!--
*************************************
* GeoObject Definition.
*************************************
-->
<struct name="GeoObject" type="Object" rttkey="GeoSpatial.ObjectType.GeoObject">
<comment>Defines the base 3D Geo Object comprising id, bounding box, and various other base information. GeoObjects are
not simple shapes. They have identity, temporal validity, and modification attributes.</comment>
<elem name="bounds" type="GeoSpatial.BoundingBox" multiplicity="1" ord="23">
<comment>Bounding box defining the maximum bounds for this GeoObject in WGS84 reference frame.</comment>
</elem>
<elem name="floorMin" type="int16" multiplicity="1" default="0" ord="24">
<comment>Defines the minimum floor number associated with the minimum bounds of the bounding box.</comment>
</elem>
<elem name="floorMax" type="int16" multiplicity="1" default="0" ord="25">
<comment>Defines the maximum floor number associated with the maximum bounds of the bounding box.</comment>
</elem>
<elem name="shape" type="GeoSpatial.Shape" multiplicity ="0..1" ord="26">
<comment>
Optional shape defining more detailed boundary of the GeoObject. This shape must be contained
entirely within the bounding box.
</comment>
</elem>
<elem name="address" type="GeoSpatial.AddressInfo" multiplicity="0..1" ord="28">
<comment>Optional address associated with the GeoObject.</comment>
</elem>
<elem name="validBegin" type="datetime" multiplicity="0..1" ord="29">
<comment>Optional time stamp denoting beginning validity.</comment>
</elem>
<elem name="validEnd" type="datetime" multiplicity="0..1" ord="30">
<comment>Optional time stamp denoting ending validity.</comment>
</elem>
</struct>
</namespace>
</specification>
GeoSpatial/V1.0/Location.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="Location.xid.xml">
<title>GeoSpatial Location Definition </title>
<!-- Include all known definitions -->
<import ref="http://xid.location.studio/Tensor/V1.0.0/Definitions.xid.xml" local="Definitions.xid.xml" />
<import ref="http://xid.location.studio/GeoSpatial/V1.0/SpatialDefs.xid.xml" local="SpatialDefs.xid.xml" />
<import ref="http://xid.location.studio/GeoSpatial/V1.0/Address.xid.xml" local="Address.xid.xml" />
<import ref="http://xid.location.studio/GeoSpatial/V1.0/Shape.xid.xml" local="Shape.xid.xml" />
<namespace name="GeoSpatial">
<using namespace="Tensor"/>
<!--
*************************************
* Location Definition.
*************************************
-->
<struct name="Location" type="Object" rttkey="GeoSpatial.ObjectType.Location">
<comment>Defines a simple location object comprising a shape with optional name, identity, and address information. Location is typically
used to convey basic information about a place. More complex types with uncertainty, confidence, bounds are available in in GeoObject and HPE positioning
definitions.</comment>
<elem name="shape" type="Shape" multiplicity="1" polymorphic="true" ord="21">
<comment>
The shape of the location. Can be any of the shape types.
</comment>
</elem>
<elem name="veracity" type="float32" multiplicity="1" default="-1" ord="22">
<comment>
Veracity defines the validity of the measurement in the range between 0 and 1.
A high score means the estimate is deemed valid and more reliable than a lower score.
If no veracity scoring is performed, this will have a value of -1.
</comment>
</elem>
<elem name="confidence" type="float32" multiplicity="1" default="-1" ord="23">
<comment>The estimate confidence. Valid range is 0.0 to 1.0. Typical value is 0.68 (one standard deviation). Default is -1 for not defined.</comment>
</elem>
<elem name="address" type="GeoSpatial.AddressInfo" multiplicity="0..1" ord="24">
<comment>Optional address associated with the GeoObject.</comment>
</elem>
<elem name="floor" type="int16" multiplicity="0..1" default="0" ord="25">
<comment>Optional floor number</comment>
</elem>
</struct>
</namespace>
</specification>
GeoSpatial/V1.0/Shape.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="Shape.xid.xml">
<title>Shape Definitions</title>
<import ref="https://xid.location.studio/Tensor/V1.0.0/Definitions.xid.xml" local="Definitions.xid.xml" />
<namespace name="GeoSpatial">
<using namespace="Tensor"/>
<!--
*******************************************************
Shape Datatypes
*******************************************************
-->
<enum name="ShapeType" type="Tensor.int8" default="undefined">
<!-- we can reduce this set -->
<literal name="undefined" value="0"/>
<literal name="Covariance" value="1"/>
<literal name="Point2D" value="20"/>
<literal name="Circle" value="21"/>
<literal name="Ellipse" value="22"/>
<literal name="Arc" value="23"/>
<literal name="ArcBand" value="24"/>
<literal name="Polygon" value="25"/>
<literal name="Point3D" value="30"/>
<literal name="Spheroid" value="31"/>
<literal name="Ellipsoid" value="32"/>
<literal name="Arc3D" value="33"/>
<literal name="ArcBand3D" value="34"/>
<literal name="Polygon3D" value="35"/>
</enum>
<array name="ShapeTypeArray" type="ShapeType"/>
<struct name="Shape">
<comment>
Shapes are used to describe various kinds of geometry.\n
When used in an Estimate result the Shape represents the
uncertainty area (2D) or uncertainty volume (3D) at the
confidence in the Estimate.
</comment>
<elem name="type" type="ShapeType" multiplicity="1" rttd="true">
<comment>This is the one thing all shapes have in common</comment>
</elem>
</struct>
</namespace>
</specification>
GeoSpatial/V1.0/ShapeArcBand.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="ShapeArcBand.xid.xml">
<title>Arc and Arcband shapes 2D and 3D</title>
<import ref="https://xid.location.studio/GeoSpatial/V1.0/ShapeCommon.xid.xml" local="ShapeCommon.xid.xml" />
<namespace name="GeoSpatial">
<using namespace="Tensor"/>
<struct name="Arc" type="Point2D" rttkey="GeoSpatial.ShapeType.Arc">
<comment>In an Estimate, the shape is the uncertainty area.</comment>
<elem name="outer" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>outer horizontal radius</comment>
</elem>
<elem name="inner" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>inner horizontal radius</comment>
</elem>
<elem name="direction" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Angle from north to center of arc.\n
0 &lt;= direction &lt; 360
</comment>
</elem>
<elem name="opening" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Horizontal coverage angle of the antenna face; half on either side of direction.\n
0 &lt; opening &lt;= 360.
</comment>
</elem>
</struct>
<struct name="ArcBand" type="Point2D" rttkey="GeoSpatial.ShapeType.ArcBand">
<comment>In an Estimate, the shape is the uncertainty area.</comment>
<elem name="major_outer" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>major axis outer radius</comment>
</elem>
<elem name="major_inner" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>major axis inner radius</comment>
</elem>
<elem name="minor_outer" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>minor axis outer radius</comment>
</elem>
<elem name="minor_inner" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>minor axis inner radius</comment>
</elem>
<elem name="orient" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Angle between north and major axis.\n
0 &lt;= orient &lt; 180.
</comment>
</elem>
<elem name="direction" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Angle from north to center of arc.\n
0 &lt;= direction &lt; 360
</comment>
</elem>
<elem name="opening" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Horizontal coverage angle of the antenna face; half on either side of direction.\n
0 &lt; opening &lt;= 360.
</comment>
</elem>
</struct>
<struct name="Arc3D" type="Point3D" rttkey="GeoSpatial.ShapeType.Arc3D">
<comment>
In an Estimate, the shape is the uncertainty area.
</comment>
<elem name ="height" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>Height above alt(itude) area is projected from.</comment>
</elem>
<elem name="outer" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>outer radius/distance/reach</comment>
</elem>
<elem name="inner" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>inner radius/distance/reach</comment>
</elem>
<elem name="direction" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Angle from north to center of arc.\n
0 &lt;= direction &lt; 360
</comment>
</elem>
<elem name="opening" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Horizontal coverage of the antenna face; half on either side of direction.\n
0 &lt; opening &lt;= 360.
</comment>
</elem>
</struct>
<struct name="ArcBand3D" type="Point3D" rttkey="GeoSpatial.ShapeType.ArcBand3D">
<comment>
In an Estimate, the shape is the uncertainty area.
</comment>
<elem name ="height" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>Height above alt(itude) area is projected from.</comment>
</elem>
<elem name="direction" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Angle from north to center of arc.\n
0 &lt;= direction &lt; 360
</comment>
</elem>
<elem name ="tilt" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Vertical tilt from horizon.\n
-90.0 &lt;= tilt &lt;= 90.0
</comment>
</elem>
<elem name="opening" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Horizontal coverage angle of the antenna face; half on either side of direction.\n
0 &lt; opening &lt;= 360.
</comment>
</elem>
<elem name="vopening" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Vertical coverage angle of the face; half on either side of tilt.\n
0 &lt; opening &lt;= 360.
</comment>
</elem>
<elem name="radius" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>
radius/distance/reach.\n
0 &lt; radius
</comment>
</elem>
</struct>
</namespace>
</specification>
GeoSpatial/V1.0/ShapeCommon.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="ShapeCommon.xid.xml">
<title>Common Shape Definitions</title>
<import ref="https://xid.location.studio/GeoSpatial/V1.0/Shape.xid.xml" local="Shape.xid.xml" />
<namespace name="GeoSpatial">
<using namespace="Tensor"/>
<struct name="Point2D" type="Shape" rttkey="GeoSpatial.ShapeType.Point2D">
<comment>Defines a 2D (lat, lon) point in WGS84 coordinates.</comment>
<elem name="lat" type="float64" multiplicity="1">
<tag name="unit" value="degrees"/>
<tag name="reference" value="WGS84"/>
</elem>
<elem name="lon" type="float64" multiplicity="1">
<tag name="unit" value="degrees"/>
<tag name="reference" value="WGS84"/>
</elem>
</struct>
<struct name="Circle" type="Point2D" rttkey="GeoSpatial.ShapeType.Circle">
<comment>In an Estimate, the shape is the uncertainty area.</comment>
<elem name="radius" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>
In an estimate, radius is the horizontal uncertainty.\n
0 &lt;= radius
</comment>
</elem>
</struct>
<struct name="Ellipse" type="Point2D" rttkey="GeoSpatial.ShapeType.Ellipse">
<comment>In an Estimate, the shape is the uncertainty area.</comment>
<elem name="major" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>major axis horizontal radius</comment>
</elem>
<elem name="minor" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>minor axis horizontal radius</comment>
</elem>
<elem name="orient" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
Angle between north and major axis.\n
0 &lt;= orient &lt; 180.
</comment>
</elem>
</struct>
<struct name="Point3D" type="Point2D" rttkey="GeoSpatial.ShapeType.Point3D">
<comment>Defines a 3D (lat, lon, alt) point in WGS84 coordinates.</comment>
<elem name="alt" type="float64" multiplicity="1">
<tag name="unit" value="meters"/>
<tag name="reference" value="WGS84"/>
</elem>
</struct>
<struct name="Spheroid" type="Point3D" rttkey="GeoSpatial.ShapeType.Spheroid">
<comment>
Spheroid is the shape of a circular "pill".\n
In an Estimate, the shape is the uncertainty area.
</comment>
<elem name="radius" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>
In an estimate, radius is the horizontal uncertainty.\n
0 &lt;= radius
</comment>
</elem>
<elem name="vert" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>
In an estimate, vert is the vertical uncertainty.\n
0 &lt;= vert
</comment>
</elem>
</struct>
<struct name="Ellipsoid" type="Point3D" rttkey="GeoSpatial.ShapeType.Ellipsoid">
<comment>
Ellipsoid is the shape of an oblong "pill" at an orientation.\n
In an Estimate, the shape is the uncertainty area.
</comment>
<elem name="major" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>major axis radius/distance/reach</comment>
</elem>
<elem name="minor" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>minor axis radius/distance/reach</comment>
</elem>
<elem name="orient" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>
angle between north and major axis.\n
0 &lt;= orient &lt; 180.
</comment>
</elem>
<elem name="vert" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>
In an estimate, vert is the vertical uncertainty.\n
0 &lt;= vert
</comment>
</elem>
</struct>
</namespace>
</specification>
GeoSpatial/V1.0/ShapePolygon.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="ShapeArcBand.xid.xml">
<title>Arc and Arcband shapes 2D and 3D</title>
<import ref="https://xid.location.studio/GeoSpatial/V1.0/ShapeCommon.xid.xml" local="ShapeCommon.xid.xml" />
<namespace name="GeoSpatial">
<using namespace="Tensor"/>
<enum name="PolygonArrayUnits" type="Tensor.int8" default="MicroDegrees">
<literal name="undefined" value="0"/>
<literal name="MicroDegrees" value="1"/>
<literal name="Meters" value="2"/>
<literal name="Millimeters" value="2"/>
</enum>
<array name="PointInt32" type="Tensor.int32" size="2">
<comments>Point (x,y) value with Int32 ordinals.</comments>
</array> />
<array name="PointInt32Array" type="PointInt32">
<comment>Array of PointInt32 values.</comment>
</array>
<struct name="Polygon" type="Point2D" rttkey="GeoSpatial.ShapeType.Polygon">
<comment>
Polygon is a 2D polygon with lat/lon at the geometric center.
</comment>
<elem name="units" type="PolygonArrayUnits" multiplicity="1" default="1">
<comment>Defines the units of the polgyon points. By default, thease are in units of microdegrees
(rotational frame, e.g WGS84 lat/lon), which limits resolution to a nominal 11 cm depending where
it is defined on the globe. For higher resolution, use meters or millimeters,
which defines the polygon a local cartesian reference frame.
</comment>
</elem>
<elem name="points" type="PointInt32Array" multiplicity="1" >
<tag name="unit" value="PolgonArrayUnits"/>
<comment>Sequential points of polygon.</comment>
</elem>
</struct>
<struct name="Polygon3D" type="Point3D" rttkey="GeoSpatial.ShapeType.Polygon3D">
<comment>
Polygon is a 3D polygon with lat/lon at the geometric center. The altitude element represents
the minimum altitude value of the bounding box. The 'vert' element represents the vertical dimension
relative to the altitude.
</comment>
<elem name="units" type="PolygonArrayUnits" multiplicity="1" default="1">
<comment>
Defines the units of the polgyon points. By default, thease are in units of microdegrees
(rotational frame, e.g WGS84 lat/lon), which limits resolution to a nominal 11 cm depending where
it is defined on the globe. For higher resolution, use meters or millimeters,
which defines the polygon a local cartesian reference frame.
</comment>
</elem>
<elem name="points" type="PointInt32Array" multiplicity="1" >
<tag name="unit" value="PolgonArrayUnits"/>
<comment>Sequential points of polygon.</comment>
</elem>
<elem name="vert" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>
The 'vert' element represents the vertical dimension
relative to the altitude.
</comment>
</elem>
</struct>
</namespace>
</specification>
GeoSpatial/V1.0/SpatialDefs.xid.xml
......@@ -20,12 +20,13 @@
* Enumerations
*************************************
-->
<enum name="CoordRefFrameType" type="Tensor.int8" default="unknown">
<enum name="ReferenceFrame" type="Tensor.int8" default="WGS84">
<comment>Enumerations defines the supported coordinate reference frames</comment>
<literal name="unknown" value="0"></literal>
<literal name="undefined" value="0"></literal>
<literal name="WGS84" value="1"></literal>
<literal name="ENU" value="2"></literal>
<literal name="NED" value="3"></literal>
<literal name="LocalXYZ" value="3" />
</enum>
......@@ -36,25 +37,32 @@
-->
<struct name="BoundingBox" pack="true">
<comment>defines the bounding box parameters</comment>
<elem name="latmin" type="Tensor.float64" multiplicity="1" >
<comment>minimum value of the latitude</comment>
<comment>Defines a bounding box in WGS84 reference frame.</comment>
<comment>Units for latitude and longitude are in units of micro degrees (1e-6 degrees) providing for about 11 cm resolution near the equator.</comment>
<elem name="latmin" type="Tensor.int32" multiplicity="1" >
<comment>Minimum value of the latitude.</comment>
<tag name="unit" value="microdegrees"/>
</elem>
<elem name="latmax" type="Tensor.float64" multiplicity="1" >
<comment>maximum value of the latitude</comment>
<elem name="latmax" type="Tensor.int32" multiplicity="1" >
<comment>Maximum value of the latitude.</comment>
<tag name="unit" value="microdegrees"/>
</elem>
<elem name="lonmin" type="Tensor.float64" multiplicity="1" >
<comment>minimum value of the longitude</comment>
<elem name="lonmin" type="Tensor.int32" multiplicity="1" >
<comment>Minimum value of the longitude.</comment>
<tag name="unit" value="microdegrees"/>
</elem>
<elem name="lonmax" type="Tensor.float64" multiplicity="1" >
<comment>maximum value of the longitude</comment>
<elem name="lonmax" type="Tensor.int32" multiplicity="1" >
<comment>Maximum value of the longitude.</comment>
<tag name="unit" value="microdegrees"/>
</elem>
<elem name="altmin" type="Tensor.float64" multiplicity="1" >
<comment>minimum value of the altitude</comment>
<elem name="altmin" type="Tensor.int32" multiplicity="1" >
<comment>Minimum value of the altitude.</comment>
<tag name="unit" value="microdegrees"/>
</elem>
<elem name="altmax" type="Tensor.float64" multiplicity="1" >
<comment>maximum value of the altitude</comment>
<elem name="altmax" type="Tensor.int32" multiplicity="1" >
<comment>Maximum value of the altitude.</comment>
<tag name="unit" value="microdegrees"/>
</elem>
</struct>
......@@ -77,6 +85,56 @@
</elem>
</struct>
*************************************
* Enumerations
*************************************
-->
<enum name="ObjectType" type="Tensor.int8" default="Object">
<comment>Enumeration defines the supported Object types.</comment>
<literal name="Object" value="0"></literal>
<literal name="GeoObject" value="1"></literal>
<literal name="Location" value="2"></literal>
<literal name="EventInfo" value="3"></literal>
<literal name="Producer" value="4"></literal>
</enum>
<!--
*************************************
* Object Definition.
*************************************
-->
<struct name="Object">
<comment>
Defines the base Object comprising id, optional name, description, and user data (JSON).
</comment>
<elem name="typeObject" type="ObjectType" multiplicity="1" rttd="true" ord="1">
<comment>Element indicates the type of the Object</comment>
</elem>
<elem name="uuid" type="Tensor.UUID" multiplicity="1" ord="2">
<comment>Unique identifier for this object.</comment>
</elem>
<elem name="uriExternal" type="Tensor.Uri" multiplicity="0..1" ord="3">
<comment>Optional external identifier for this object.</comment>
</elem>
<elem name="uriClassifier" type="Tensor.Uri" multiplicity="0..1" ord="4">
<comment>Optional external classifier identifier for this object.</comment>
</elem>
<elem name="name" type="Tensor.string" multiplicity="0..1" ord="5">
<comment>Optional user friendly name of the GeoObject.</comment>
</elem>
<elem name="description" type="Tensor.string" multiplicity="0..1" ord="6">
<comment>Optional user friendly description of the GeoObject.</comment>
</elem>
<elem name="data" type="Tensor.JSON" multiplicity="0..1" ord="7">
<comment>Optional JSON data associated with this object.</comment>
</elem>
</struct>
</namespace>
</specification>
......
HPE/V2.0/HpeCellular.xid.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="HpeCellular.xid.xml">
<title>HPE Celullar Data Definition</title>
<comment>File contains data definitions for 2G, 3G, and 4G HPE location related datatypes.</comment>
<import ref="https://xid.location.studio/Tensor/V1.0.0/Definitions.xid.xml" local="Definitions.xid.xml" />
<import ref="https://xid.location.studio/HPE/V1.2/HpeCore.xid.xml" local="HpeCore.xid.xml" />
<namespace name="HPE.Cellular">
<using namespace="Tensor"/>
<using namespace="HPE"/>
<enum name="RadioType" type="Tensor.uint8" default="undefined">
<comment>Specifies the specific variant of Radio Data.</comment>
<literal name="undefined" value="0"/>
<literal name="GSM" value="1"/>
<literal name="WCDMA" value="2"/>
<literal name="LTE" value="3"/>
<literal name="CDMA" value="4"/>
</enum>
<enum name="DuplexMode" type="Tensor.int8" default="FDD">
<comment>Defines the communication duplexing mode.</comment>
<literal name="FDD" value="0"/>
<literal name="TDD" value="1"/>
</enum>
<enum name="TimeAdvMode" type="Tensor.int8" default="RAW">
<comment>Defines Time Advance measurement mode.</comment>
<literal name="TYPE1" value="0"/>
<literal name="TYPE2" value="1"/>
<literal name="UE" value="2"/>
<literal name="SUPL" value="3"/>
<literal name="RAW" value="4"/>
</enum>
<!-- Referece Data types-->
<struct name="CellId" pack="true">
<comment>
CellIDInfo is a structure that uniquely identifies the Cell Tower in the cellular network.\n
It relies on the RadioType field to interpret the meaning of specific fields.</comment>
<elem name ="rtype" type="RadioType" multiplicity="1"/>
<elem name ="mncLength" type="uint8" multiplicity="1">
<comment>
Indicates number of digits for MNC to pad to (2 or 3).\n
If unknown, use 0.\n
For:\n
\t rtype=4(CDMA), this field is ignored.
</comment>
</elem>
<elem name ="mcc" type="uint16" multiplicity="1">
<comment>Mobile Country Code.</comment>
</elem>
<elem name ="mnc" type="uint16" multiplicity="1">
<comment>
Mobile Network Code.\n
For:\n
\t rtype=4(CDMA) this field is the SID
</comment>
</elem>
<elem name ="lac" type="uint16" multiplicity="1">
<comment>
Location Area Code.\n
For:\n
\t rtype=3(LTE) this field is the TAC.\n
\r rtype=4(CDMA) this field is the NID.
</comment>
</elem>
<elem name ="cid" type="uint32" multiplicity="1">
<comment>
Cell ID.\n
For:\n
\t rtype=4(CDMA) this field is the BID.
</comment>
</elem>
</struct>
<struct name="AntennaSpec" pack="true">
<comment>Specifies the details about a specific antenna.</comment>
<comment>Geometric specification matches HPE.ArcBand3D</comment>
<elem name ="sectorid" type="uint16" multiplicity="1"/>
<elem name ="height" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>Height of the antenna from the CellLocInfo altitude.</comment>
</elem>
<elem name ="direction" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>angle from north to center of arc; aka orientation. 0 &lt;= direction &lt; 360.</comment>
</elem>
<elem name ="tilt" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>Vertical tilt from horizon.</comment>
</elem>
<elem name="opening" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>Coverage angle of the antenna face; half on either side of direction. 0 &lt; opening &lt;= 360.</comment>
</elem>
<elem name="vopening" type="float32" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>Vertical coverage angle of the antenna face; half on either side of tilt 0 &lt; opening &lt;= 360.</comment>
</elem>
<elem name="radius" type="uint32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>Maximum antenna radius; distance the cell is usable at TxPower.
aka: MAR, SectorRadius
</comment>
</elem>
<elem name="TxPower" type="float64" multiplicity="1">
<tag name="unit" value="dBm"/>
<comment>Transmit power.</comment>
</elem>
<elem name="frequency" type="float64" multiplicity="1">
<tag name="unit" value="Hz"/>
<comment>Radio frequency of the transimitted signal</comment>
</elem>
<elem name="RTTCalib" type="float32" multiplicity="1">
<tag name="unit" value="meter"/>
<comment>RTT Calibration is the survey result of the average RTT error of the cell in meters. Set to zero when not available</comment>
</elem>
<elem name="RTTCalibUncert" type="float32" multiplicity="1">
<tag name="unit" value="meter"/>
<comment>standard deviation of the RTTCalib. set to zero if not available</comment>
</elem>
</struct>
<struct name="CellLocInfo" pack="true">
<comment>Geometric specification matches HPE.Spheroid</comment>
<comment>Provides the Cell tower location estimate @ 68% confidence</comment>
<elem name="lat" type="float64" multiplicity="1">
<tag name="unit" value="WGS84"/>
</elem>
<elem name="lon" type="float64" multiplicity="1">
<tag name="unit" value="WGS84"/>
</elem>
<elem name="alt" type="float64" multiplicity="1">
<tag name="unit" value="WGS84"/>
</elem>
<elem name="radius" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>Horizontal uncertainty of cell-site position at 68% confidence. 0 &lt;= hunc </comment>
</elem>
<elem name="vert" type="float32" multiplicity="1">
<tag name="unit" value="meters"/>
<comment>Vertical uncertainty of cell-site position at 68% confidence. 0 &lt;= vunc</comment>
</elem>
</struct>
<struct name="CellAntReferenceData" type="HPE.ReferenceData" pack="true" rttkey="HPE.RefDataFormat.CELLULAR">
<comment>
Data provdes a complete set of information for a particular antenna typically associated with one or more observations.
The default RefDataFormat is CELLULAR.
</comment>
<elem name ="cid" type="CellId" multiplicity="1"/>
<elem name ="antenna" type="AntennaSpec" multiplicity="1"/>
<elem name ="location" type="CellLocInfo" multiplicity="1"/>
</struct>
<!-- Observation Data types-->
<struct name="MSISDNObservation" type="Observation" pack="true" rttkey="HPE.ObservationType.MSISDN">
<comment>
MSISDN only observation. Observation must comply with E.164 standard in section 6.2.1
(https://www.itu.int/rec/T-REC-E.164-201011-I/en).
</comment>
<elem name ="cc" type="uint16" multiplicity="1" default="1">
<tag name="unit" value="1 to 3 digits"/>
<comment>
Country Code must have one (1) to three (3) digits.</comment>
</elem>
<elem name ="nsn" type="uint64" multiplicity="1">
<tag name="unit" value="digits as a regular number"/>
<comment>
NSNs can have up to 12 digits.
</comment>
</elem>
</struct>
<struct name="CellularObservation" type="ObservationEpoch" pack="true" rttkey="HPE.ObservationType.CELLID">
<comment>CellID only observation.</comment>
<comment>Also, base type for all cellular measurements.</comment>
<elem name ="cid" type="CellId" multiplicity="1"/>
</struct>
<!-- 2G Observations -->
<struct name="TimeAdvance" type="CellularObservation" pack="true" rttkey="HPE.ObservationType.GSM_TA">
<comment>TimeAdvanceInfo is a structure which defines the Time Advance measurements of a base station.</comment>
<elem name ="ta" type="uint16" multiplicity="1">
<tag name="unit" value="bit period = 48/13 micro-second"/>
<comment>Range 0-255, values over 63 correspond to the access delay measured by the BTS.</comment>
<comment>Unit: 1 bits period = 48/13 micro-second</comment>
</elem>
</struct>
<struct name="NMRInfo" type="CellularObservation" pack="true" rttkey="HPE.ObservationType.GSM_NMR">
<comment>
NMRInfo is a structure that defines important elements
in the network measurement report in GSM network.
</comment>
<elem name ="arfcn" type="uint16" multiplicity="1">
<comment>Absolute RF channel number. Range 0-1023.</comment>
</elem>
<elem name ="bsic" type="uint16" multiplicity="1">
<comment>Bsic Station Identity Code GSM 03.03. Range 0-63.</comment>
</elem>
<elem name ="rxlevel" type="uint16" multiplicity="1">
<comment>Corresponds according to the mapping defined in TS. GSM 05.08 to the received signal
strength on carrier N. N is the index to the frequency
in the sorted list of frequencies defined in the
EXTENDED MEASUREMENT ORDER message. Range 0-63.
</comment>
</elem>
</struct>
<!-- 3G Observation data types.-->
<struct name="RttInfo" type="CellularObservation" pack="true" rttkey="HPE.ObservationType.RTT_3G">
<comment>RTTInfo is a structure which defines the round trip time measured results in 3G network.</comment>
<elem name ="tamode" type="TimeAdvMode" multiplicity="1">
<comment>Measurement mode of the Roud Trip Time. Currently the RTT structure is only valid for FDD</comment>
<comment>Only Type1 and Type2 in TimeAdvMode are valid in RTT structure, need to ignore SUPL, RAW, UE</comment>
</elem>
<elem name ="rxtxtime" type="uint16" multiplicity="1">
<comment>
RxTxTime depends on duplex mode.
TDD: 0-8191
FDD: 768..1280
</comment>
</elem>
<elem name ="quality" type="uint8" multiplicity="1">
<comment>Quality of the UE Rx-Tx time difference measurement.</comment>
</elem>
<elem name ="rtt" type="uint16" multiplicity="1">
<comment>Round Trip Time measurement. Range = 0-32766</comment>
</elem>
<elem name ="exrtt" type="uint32" multiplicity="1">
<comment>Extended Round Trip Time continuation of intervals. 32767..103041</comment>
</elem>
</struct>
<struct name="MeasuredResultInfo" type="CellularObservation" pack="true" rttkey="HPE.ObservationType.MR_3G">
<comment>3G MeasuredResultInfo is a structure which defines the measured result.</comment>
<elem name ="dupmode" type="DuplexMode" multiplicity="1">
<comment>Duplex mode of the cell.</comment>
</elem>
<elem name ="cpichRSCP" type="uint8" multiplicity="1">
<comment>Range 0 to 63</comment>
</elem>
<elem name ="cpichEcNO" type="uint8" multiplicity="1">
<comment>Range 0 to 63</comment>
</elem>
<elem name ="pathloss" type="uint8" multiplicity="1">
<comment>Range 0 to 127</comment>
</elem>
<elem name ="deltaRSCP" type="int8" multiplicity="1">
<comment>Range (-5) to (-1)</comment>
</elem>
</struct>
<!-- 4G Datatypes -->
<struct name="LteTimeAdvanceInfo" type="CellularObservation" pack="true" rttkey="HPE.ObservationType.LTE_TA">
<comment>LTE timing advance information typically provided by the serving cell.</comment>
<elem name ="tamode" type="TimeAdvMode" multiplicity="1">
<comment>Measurement mode of the Time Advance.</comment>
</elem>
<elem name ="ta" type="uint16" multiplicity="1">
<comment>Timing Advance, range: (0...7690) (as per 3GPP 36.321).</comment>
</elem>
<elem name ="aoa" type="uint16" multiplicity="1">
<comment>Angle of Arrival</comment>
</elem>
<elem name ="uerxtx" type="uint16" multiplicity="1">
<comment>RxTx time measured from User Entity. Range(0...4095)</comment>
</elem>
</struct>
<struct name="LteRssiInfo" type="CellularObservation" pack="true" rttkey="HPE.ObservationType.LTE_RSSI">
<comment>
LTERSSIInfo is a 4G LTE structure which defines the signal RSSI information.
</comment>
<elem name ="rsrp" type="uint8" multiplicity="1">
<tag name="unit" value="dBm"/>
<comment>Reference signal received power</comment>
</elem>
<elem name ="rsrq" type="uint8" multiplicity="1">
<tag name="unit" value="dB"/>
<comment>Reference signal received quality</comment>
</elem>
<elem name ="nprb" type="uint8" multiplicity="1">
<tag name="unit" value="dimensionless"/>
<comment>Number of channels used to calculate rsrp</comment>
</elem>
</struct>
<struct name="GenericInfo" type="CellularObservation" pack="true" rttkey="HPE.ObservationType.CELLULAR_GENERIC">
<comment>Observation type specifies a common cellular observation in generic units. Sometimes observations are translated into a simpler format for transport.</comment>
<elem name ="rss" type="float32" multiplicity="1">
<comment>Received Signal Strength (RSS), the value is 0 if not defined. The units are -dBm.</comment>
</elem>
<elem name ="rssUncert" type="uint8" multiplicity="1">
<comment>RSS standard deviation uncertainty in dB units. the value is 0 if not defined or unknown.</comment>
</elem>
<elem name ="taLowPart" type="uint16" multiplicity="1">
<comment>Low part of timing advance measurement. Range is 0 to 49,999 nsecs (max 15km). Value is 0 if not defined</comment>
</elem>
<elem name ="taHighPart" type="uint8" multiplicity="1">
<comment>High part of timing advance measurement. Range is 0 to 255 in units of 50 usec (max. 2550 usec or 3,825 km). Value is 0 if not used.</comment>
</elem>
<elem name ="taUncert" type="uint16" multiplicity="1">
<comment>Timing advance standard deviation uncertainty in nanosecond units. The value is 0 if not defined.</comment>
</elem>
<elem name ="service" type="bool" multiplicity="1">
<comment>Serving Cell indicator. If true, the measurement is from the serving cell, false if from a neighboring cell. If not defined set to false.</comment>
</elem>
</struct>
<!--
<struct name="" type="CellularObservation" pack="true">
<comment></comment>
<elem name ="" type="uint16" multiplicity="1">
<comment></comment>
</elem>
<elem name ="" type="uint16" multiplicity="1">
<comment></comment>
</elem>
</struct>
-->
</namespace>
</specification>
HPE/V2.0/HpeCore.xid.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="HpeCore.xid.xml">
<title>HPE Core Definitions</title>
<comment>This file contains the core definitions used by the HPE.</comment>
<import ref="https://xid.location.studio/Tensor/V1.0.0/Definitions.xid.xml" local="Definitions.xid.xml" />
<import ref="https://xid.location.studio/Tensor/V1.0.0/Common.xid.xml" local="Common.xid.xml" />
<import ref="http://xid.location.studio/GeoSpatial/V1.0/Shape.xid.xml" local="Shape.xid.xml" />
<namespace name="HPE">
<using namespace="Tensor"/>
<using namespace="GeoSpatial"/>
<!--
*******************************************************
Standard Definitions
*******************************************************
-->
<enum name="ProcessingStatus" type="Tensor.int8" default="undefined">
<comment>Status resulting from processing the observation data.</comment>
<literal name="success" value="1"/>
<literal name="undefined" value="0"/>
<literal name="did_not_converge" value="-1"/>
<literal name="not_enough_data" value="-2" />
<literal name="computation_error" value="-3" />
<literal name="parsing_error" value="-4" />
<literal name="not_found" value="-5" />
<literal name="unknown_error" value="-6" />
</enum>
<enum name="DynamicsProfile" type="Tensor.int8" default="undefined">
<literal name="undefined" value="0"/>
<literal name="stationary" value="1" />
<literal name="spacecraft" value="2" />
<literal name="aircraft" value="3" />
<literal name="marinecraft" value="4" />
<literal name="landcraft" value="5" />
<literal name="bicycle" value="6" />
<literal name="pedestrian" value="7" />
<literal name="pedestrian_running" value="8" />
<literal name="pedestrian_jogging" value="9" />
<literal name="pedestrian_walking" value="10" />
</enum>
<enum name="EstimateRanking" type="Tensor.int8" default="calcorder">
<literal name="undefined" value="0"/>
<literal name="accuracy" value="1" />
<literal name="veracity" value="2" />
<literal name="calcorder" value="3" />
</enum>
<!--
*******************************************************
Observation Datatypes
*******************************************************
-->
<enum name="ObservationType" type="Tensor.int8" default="undefined">
<literal name="undefined" value="0"/>
<literal name="SHAPE" value="1"/>
<literal name="MSISDN" value="6"/>
<literal name="CELLID" value="7"/>
<literal name="GSM_TA" value="8"/>
<literal name="GSM_NMR" value="9"/>
<literal name="RTT_3G" value="10"/>
<literal name="MR_3G" value="11"/>
<literal name="LTE_TA" value="12"/>
<literal name="LTE_RSSI" value="13"/>
<literal name="WIFI_RSS" value="14"/>
<literal name="WIFI_RNG" value="15"/>
<literal name="BLE_RSS" value="16"/>
<literal name="CELLULAR_GENERIC" value="17">
<comment>Observation type specifies a common cellular observation in generic units.</comment>
</literal>
<literal name="GPS_CODEPHASE_8" value="18">
<comment>Eight standard GPS Code phase measurements (81 bytes).</comment>
</literal>
<literal name="GPS_CODEPHASE_MIN6" value="19">
<comment>Eight minimum size GPS Code phase measurements (51 bytes).</comment>
</literal>
<literal name="GPS_CODEPHASE_MIN8" value="20">
<comment>Eight minimum size GPS Code phase measurements (65 bytes).</comment>
</literal>
<literal name="GNSS_PSEUDORANGE" value="21">
<comment>GNSS Pseudorange measurements.</comment>
</literal>
<literal name="WIFI_RSS_EXT" value="22"/>
</enum>
<array name="ObservationTypeArray" type="ObservationType"/>
<array name="StateVector" type="float64" size="8" >
<comment>
Defines the HPE standard state column vector, which is comprised of the following elements in cartesian coordinates:
X,Y,Z, Xdot, Ydot, Zdot, clk, clkrate.
Unless using a different coordinate reference frame, these values are typically in WGS-84 ECEF reference frame, where the
units are meters, meters per second. Clock terms (clk and clkrate) are also expressed in meters and meters per second,
to provide similar scalaing to physical units. To get to seconds and seconds per second device by the speed of light.
</comment>
</array>
<array name="CovarianceMatrix" type="Tensor.float64" size="64" >
<comment>
Defines a 8x8 Covariance matrix for the HPE standard state vector. This provides a linearized correlation
matrix for the estimated state vector. This is the high-fidelity format for providing Gaussian error information
passed between calculation processes.al units. To get to seconds and seconds per second device by the speed of light.
</comment>
</array>
<struct name="Observation" pack="true">
<comment>Bass type for all observation data</comment>
<elem name="type" type="ObservationType" multiplicity="1" rttd="true">
<comment>Identifies what type of observation this is.</comment>
</elem>
</struct>
<struct name="ObservationEpoch" type="Observation" pack="true">
<comment>Bass type for time based observation data</comment>
<elem name="epoch" type="datetime" multiplicity="1">
<comment>
Date the observation was attained. For GPS observatios (GPS_CODEPHASE_8, GPS_CODEPHASE_MIN6, GPS_CODEPHASE_MIN8, GNSS_PSEUDORANGE),
the epoch time has to have at least millisecond resolution. Fraction of a second epoch error can cause hundreds of meters of error
in position.
</comment>
</elem>
</struct>
<struct name="ObservationSet">
<comment>A set of observations for a single device covering multiple epochs.</comment>
<elem name="observations" type="Observation" multiplicity="0..*" polymorphic="true"/>
</struct>
<!-- ShapeObservation -->
<!-- Disable for now
<struct name="ShapeObservation" type="Observation" pack="true" rttkey="HPE.ObservationType.SHAPE">
<comment>Observation is comprised of a shape.</comment>
<elem name="shape" type="Shape" multiplicity="1" polymorphic="true">
<comment>
The shape can be any one of the supported shape types inheriting from the Shape base type.
</comment>
</elem>
</struct>
-->
<!--
*******************************************************
Reference Datatypes
*******************************************************
-->
<enum name="RefDataFormat" type="Tensor.int8" default="undefined">
<comment>Specifies the format of the Reference data.</comment>
<literal name="undefined" value="0"/>
<literal name="GPS_EPHEMERIS" value="1"/>
<literal name="GPS_ALMANAC" value="2"/>
<literal name="GLONASS_EPHEMERIS" value="3"/>
<literal name="GALILEO_EPHEMERIS" value="4"/>
<literal name="CELLULAR" value="5"/>
<literal name="WIFI_AP" value="6"/>
</enum>
<array name="RefDataFormatArray" type="RefDataFormat"/>
<struct name="ReferenceData" pack="true">
<comment>Bass structure for all reference data types.</comment>
<elem name="format" type="RefDataFormat" multiplicity="1" rttd="true">
<comment>Identifies the format/type of the reference data.</comment>
</elem>
</struct>
<struct name="ReferenceDataSet">
<comment>A set of reference data.</comment>
<elem name ="id" type="UUID" multiplicity="1" />
<elem name="records" type="ReferenceData" multiplicity="1..*" polymorphic="true"/>
</struct>
<!--
*******************************
* StateInfo Type Definition
*******************************
-->
<enum name="StateSource" type="Tensor.uint8" default="undefined">
<comment>Source enumeration defines the source of the state information.</comment>
<literal name="undefined" value="0">
<comment>Source is not defined or is unknown.</comment>
</literal>
<literal name="gnss" value="1">
<comment>Source is GNSS.</comment>
</literal>
<literal name="cellular" value="2">
<comment>Source is cellular network location.</comment>
</literal>
<literal name="wifi" value="3">
<comment>Source is WiFi location.</comment>
</literal>
<literal name="bluetooth" value="4">
<comment>Source is bluetooth or bluetooth beaconning.</comment>
</literal>
<literal name="rtls" value="5">
<comment>Source is real-time locating sytem (RTLS).</comment>
</literal>
<literal name="inertial" value="6">
<comment>Source is inertial or sensor fusion.</comment>
</literal>
<literal name="hybrid" value="7">
<comment>Source is hybrid comprised of multiple datatypes (not sensor fusion).</comment>
</literal>
<literal name="previous" value="8">
<comment>Previous state calculated by the ILP/HPE engine.</comment>
</literal>
</enum>
<struct name="StateInfo">
<comment>StateInfo provides a positional definition.</comment>
<comment>
Used in initializaton and position submission type interfaces.
</comment>
<elem name="epoch" type="datetime" multiplicity="1" />
<elem name="confidence" type="float32" multiplicity="1">
<comment>Confidence of position shape. Valid range is 0.0 to 1.0</comment>
</elem>
<elem name="shape" multiplicity="1" type="Shape" polymorphic="true" >
<comment>
Position. Polymorphic type, see specializations
from Shape for details.
</comment>
</elem>
<elem name="speed" type="float32" multiplicity="0..1">
<tag name="unit" value="meters/sec"/>
<comment>speed of device in meters/sec</comment>
</elem>
<elem name="azimuth" type="float32" multiplicity="0..1">
<tag name="unit" value="degrees"/>
<comment>Azimuth heading of the device in degrees (true North)</comment>
</elem>
<elem name="source" type="StateSource" multiplicity="0..1" default="0">
<comment>Source field defines the source of the state information. If not specified, value is undefined. Defining the source of the state information
assists the calculation processing by characterizing the nature of the position data relative to associated observations.
</comment>
</elem>
</struct>
<!--
*******************************************************
Estimate Results
*******************************************************
-->
<array name="StringIdentifier" type="int8" size="16">
<comment>String identifier defines a short fixed string identifier.</comment>
</array>
<struct name="Estimate">
<comment>
Estimate is the result provided by positioning calculators at the completion
of a calculation.
</comment>
<elem name="result" type="ProcessingStatus" multiplicity="1">
<comment>
The result of the data processing used to produce the estimate.
If not success, ignore the remainder of the estimate information.
</comment>
</elem>
<elem name="source" type="string" multiplicity="1">
<comment>Estimate source identifier. If not defined set to "".</comment>
</elem>
<elem name="obstype" type="ObservationType" multiplicity="1">
<comment>The last observation type used to create the estimate.</comment>
</elem>
<elem name="tic" type="uint32">
<comment>Tic count of the estimate. Set to zero if not known.</comment>
</elem>
<elem name="epoch" type="datetime" multiplicity="1">
<comment>Epoch defines the point in time for which the estimate applies.</comment>
</elem>
<elem name="veracity" type="float32" multiplicity="1" default="-1">
<comment>
Veracity defines the validity of the measurement in the range between 0 and 1.
A high score means the estimate is deemed valid and more reliable than a lower score.
If no veracity scoring is performed, this will have a value of -1.
</comment>
</elem>
<elem name="confidence" type="float32" multiplicity="1">
<comment>The estimate confidence. Valid range is 0.0 to 1.0</comment>
</elem>
<elem name="shape" type="Shape" multiplicity="1" polymorphic="true">
<comment>
The estimate shape result. The particular shape is determined by the
preferred shapes specified in the BeginCalculation.
</comment>
</elem>
</struct>
<!-- eventually may be able to support variable sized elements
<array name="EstimateArray" type="Estimate">
<comment>
HPE Estimates are reported in an array providing the requested formats.
</comment>
</array>
-->
</namespace>
</specification>
HPE/V2.0/HpeGnss.xid.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="HpeGnss.xid.xml">
<title>HPE GNSS Data Definition</title>
<comment>File contains data definitions for GNSS HPE location related datatypes.</comment>
<import ref="https://xid.location.studio/Tensor/V1.0.0/Definitions.xid.xml" local="Definitions.xid.xml" />
<import ref="https://xid.location.studio/HPE/V1.2/HpeCore.xid.xml" local="HpeCore.xid.xml" />
<namespace name="HPE.Gnss">
<using namespace="Tensor"/>
<using namespace="HPE"/>
<enum name="Constellation" type="uint8" default="unspecified">
<comment>
Specifies the specific GNSS constellation. These are oreable values to
be used as flags.
</comment>
<literal name="unspecified" value="0x00"/>
<literal name="GPS" value="0x01"/>
<literal name="GLONASS" value="0x02"/>
<literal name="GALILEO" value="0x03"/>
<literal name="BEIDOU" value="0x04"/>
<literal name="QZSS" value="0x05"/>
<literal name="MBS_FLAG" value="0x20"/>
<literal name="RTLS_FLAG" value="0x40"/>
</enum>
<enum name="AssistanceData" type="uint8" default="unspecified">
<comment>
Enumeration literals defining the types of assistance data supported.
</comment>
<literal name="unspecified" value="0x00"/>
<literal name="GpsAlmanac" value="0x01"/>
<literal name="GpsEphemeris" value="0x02"/>
<literal name="GpsUtcParameters" value="0x03"/>
<literal name="GpsIonosphericCorrection" value="0x04"/>
<literal name="AcquisitionAssistance" value="0x05"/>
</enum>
<!-- Satellite ID -->
<struct name="SatelliteId" pack="true">
<comment>Satellite identifier specifies constellation and satellite identifier.</comment>
<elem name ="constellation" type="Constellation" multiplicity="1"/>
<elem name ="id" type="uint8" multiplicity="1">
<comment>Satellite identifier: range 0 to 63.</comment>
</elem>
</struct>
<!--
*******************************************************
Almanac Data Structures
*******************************************************
-->
<!-- Almanac -->
<struct name="Almanac" pack="true">
<comment>Generalized Almanac orbit in GPS reference frame. One record per satellite.</comment>
<elem name ="id" type="uint8" multiplicity="1">
<comment>Satellite identifier, valid range is 0-63.</comment>
</elem>
<elem name ="toa" type="uint8" multiplicity="1">
<comment>Time of almanac in seconds. Value is integer encoded with scale factor 2^12</comment>
<tag name="unit" value="2^12 seconds"/>
</elem>
<elem name ="deltai0" type="int16" multiplicity="1">
<comment>Relative inclination to i0 = 0.3 semi-circles at reference time. Value is integer encoded with scale factor 2^-19</comment>
<tag name="unit" value="2^-19 semi-circles"/>
</elem>
<elem name ="OmegaDot" type="int16" multiplicity="1">
<comment>Rate of Right Ascension in semi-circles/sec. Value is integer encoded with scale factor 2^-38</comment>
<tag name="unit" value="2^-38 seconds"/>
</elem>
<elem name ="af0" type="int16" multiplicity="1">
<comment>SV clock bias in seconds. Value is integer encoded with scale factor 2^-20</comment>
<tag name="unit" value="2^-20 seconds"/>
</elem>
<elem name ="af1" type="int16" multiplicity="1">
<comment>SV clock bias rate in seconds/second. Value is integer encoded with scale factor 2^-38</comment>
<tag name="unit" value="2^-38 seconds"/>
</elem>
<elem name ="eccentricity" type="uint16" multiplicity="1">
<comment>Eccentricity of the orbit. Value is integer encoded with scale factor 2^-21</comment>
<tag name="unit" value="2^-21"/>
</elem>
<elem name ="sqrtA" type="uint24" multiplicity="1">
<comment>Square root of Mean anomaly. Value is integer encoded with scale factor 2^-11</comment>
<tag name="unit" value="2^-11 meters^1/2"/>
</elem>
<elem name ="Omega0" type="int24" multiplicity="1">
<comment>Longitude of ascending node in semi-circles. Value is integer encoded with scale factor 2^-23</comment>
<tag name="unit" value="2^-23 semi-circles"/>
</elem>
<elem name ="omega" type="int24" multiplicity="1">
<comment>omega argument of perigee in semi-circles. Value is integer encoded with scale factor 2^-23</comment>
<tag name="unit" value="2^-23 semi-circles"/>
</elem>
<elem name ="M0" type="int24" multiplicity="1">
<comment>Mean anomaly at reference time in semi-circles. Value is integer encoded with scale factor 2^-23</comment>
<tag name="unit" value="2^-23 semi-circles"/>
</elem>
<elem name ="SvHealth" type="uint8" multiplicity="1">
<comment>Satellite health flags.</comment>
</elem>
</struct>
<!-- Ephemeris -->
<struct name="Ephemeris" pack="true">
<comment>Generalized GPS 15 element precision Keplerian orbit in GPS reference frame. One record per satellite.</comment>
<elem name ="id" type="uint8" multiplicity="1">
<comment>Satellite identifier, valid range is 0-63.</comment>
</elem>
<elem name ="toe" type="uint16" multiplicity="1">
<comment>Time of Ephemeris. Value is integer encoded with scale factor 2^4</comment>
<tag name="unit" value="2^4 seconds"/>
</elem>
<elem name ="iode" type="uint8" multiplicity="1">
<comment>Issue of data Ephemeris. The value for comparison with the 8 LSBs of the IODC</comment>
</elem>
<elem name ="eccentricity" type="uint32" multiplicity="1">
<comment>Eccentricity of the orbit. Value is integer encoded with scale factor 2^-33</comment>
<tag name="unit" value="2^-33"/>
</elem>
<elem name ="i0" type="int32" multiplicity="1">
<comment>Inclination at reference time in semi-circles. Value is integer encoded with scale factor 2^-31</comment>
<tag name="unit" value="2^-31 semi-circles"/>
</elem>
<elem name ="OmegaDot" type="int24" multiplicity="1">
<comment>Rate of Right Ascension in semi-circles/sec. Value is integer encoded with scale factor 2^-43</comment>
<tag name="unit" value="2^-43 seconds"/>
</elem>
<elem name ="sqrtA" type="uint32" multiplicity="1">
<comment>Square root of Mean anomaly. Value is integer encoded with scale factor 2^-19</comment>
<tag name="unit" value="2^-19 meters^1/2"/>
</elem>
<elem name ="Omega0" type="int32" multiplicity="1">
<comment>Longitude of ascending node in semi-circles. Value is integer encoded with scale factor 2^-31</comment>
<tag name="unit" value="2^-31 semi-circles"/>
</elem>
<elem name ="omega" type="int32" multiplicity="1">
<comment>omega argument of perigee in semi-circles. Value is integer encoded with scale factor 2^-31</comment>
<tag name="unit" value="2^-31 semi-circles"/>
</elem>
<elem name ="M0" type="int32" multiplicity="1">
<comment>Mean anomaly at reference time in semi-circles. Value is integer encoded with scale factor 2^-31</comment>
<tag name="unit" value="2^-31 semi-circles"/>
</elem>
<elem name ="deltan" type="int16" multiplicity="1">
<comment>Mean Motion Difference From Computed Value in semi-circles/sec. Value is integer encoded with scale factor 2^-43</comment>
<tag name="unit" value="2^-43 semi-circles"/>
</elem>
<elem name ="idot" type="int16" multiplicity="1">
<comment>Rate of Inclination in semi-circles/sec. Value is integer encoded with scale factor 2^-43</comment>
<tag name="unit" value="2^-43 semi-circles"/>
</elem>
<elem name ="Cis" type="int16" multiplicity="1">
<comment>Amp. Sin Correction of Inclination in radians. Value is integer encoded with scale factor 2^-29</comment>
<tag name="unit" value="2^-29 radians"/>
</elem>
<elem name ="Cic" type="int16" multiplicity="1">
<comment>Amp. Cosine Correction of Inclination in radians. Value is integer encoded with scale factor 2^-29</comment>
<tag name="unit" value="2^-29 radians"/>
</elem>
<elem name ="Crs" type="int16" multiplicity="1">
<comment>Amp. Sin Correction of orbit radius in meters. Value is integer encoded with scale factor 2^-5</comment>
<tag name="unit" value="2^-5 meters"/>
</elem>
<elem name ="Crc" type="int16" multiplicity="1">
<comment>Amp. Cosine Correction of orbit radius in meters. Value is integer encoded with scale factor 2^-5</comment>
<tag name="unit" value="2^-5 meters"/>
</elem>
<elem name ="Cus" type="int16" multiplicity="1">
<comment>Amp. Sin Correction of Latitude in radians. Value is integer encoded with scale factor 2^-29</comment>
<tag name="unit" value="2^-29 radians"/>
</elem>
<elem name ="Cuc" type="int16" multiplicity="1">
<comment>Amp. Cosine Correction of Latitude in radians. Value is integer encoded with scale factor 2^-29</comment>
<tag name="unit" value="2^-29 radians"/>
</elem>
<elem name ="toc" type="uint16" multiplicity="1">
<comment>Time of clock. Value is integer encoded with scale factor 2^4</comment>
<tag name="unit" value="2^4 seconds"/>
</elem>
<elem name ="iodc" type="uint16" multiplicity="1">
<comment>Issue of data Clock. </comment>
<tag name="unit" value="discretes"/>
</elem>
<elem name ="af0" type="int24" multiplicity="1">
<comment>SV clock bias in seconds. Value is integer encoded with scale factor 2^-31.</comment>
<tag name="unit" value="2^-31 seconds"/>
</elem>
<elem name ="af1" type="int16" multiplicity="1">
<comment>SV clock bias rate in seconds/second. Value is integer encoded with scale factor 2^-43.</comment>
<tag name="unit" value="2^-43 seconds"/>
</elem>
<elem name ="af2" type="int8" multiplicity="1">
<comment>SV clock bias rate in seconds/second^2. Value is integer encoded with scale factor 2^-55.</comment>
<tag name="unit" value="2^-55 seconds"/>
</elem>
<elem name ="TGD" type="int8" multiplicity="1">
<comment>L1-L2 group delay differential in seconds. Value is integer encoded with a scale factor 2^-31.</comment>
<tag name="unit" value="2^-31 seconds"/>
</elem>
<elem name ="SvHealth" type="uint8" multiplicity="1">
<comment>Satellite health flags.</comment>
</elem>
</struct>
<!-- UTC Parameters -->
<struct name="UtcParameters" pack="true">
<comment>Conversion data between GPS time and UTC.</comment>
<elem name ="a0" type="int32" multiplicity="1">
<comment>Constant term of the polynomial in seconds. Value is integer encoded with scale factor 2^-30.</comment>
<tag name="unit" value="2^-30 seconds"/>
</elem>
<elem name ="a1" type="int24" multiplicity="1">
<comment>First order term of the polynomial in seconds/second. Value is integer encoded with scale factor 2^-50.</comment>
<tag name="unit" value="2^-50 seconds"/>
</elem>
<elem name ="DeltaTls" type="int8" multiplicity="1">
<comment>Delta time due to Leap Seconds. </comment>
<tag name="unit" value="seconds"/>
</elem>
<elem name ="tot" type="uint8" multiplicity="1">
<comment>Time of Utc Data. Value is integer encoded with scale factor 2^12</comment>
<tag name="unit" value="2^12 seconds"/>
</elem>
<elem name ="WNt" type="uint8" multiplicity="1">
<comment>UTC Reference Week Number in weeks</comment>
<tag name="unit" value="weeks"/>
</elem>
<elem name ="WNlsf" type="uint8" multiplicity="1">
<comment>Week Number LeapSecond Future in weeks</comment>
<tag name="unit" value="weeks"/>
</elem>
<elem name ="DN" type="uint8" multiplicity="1">
<comment>Day number in days</comment>
<tag name="unit" value="days"/>
</elem>
<elem name ="DeltaTlsf" type="int8" multiplicity="1">
<comment>Delta time due to Leap Seconds Future</comment>
<tag name="unit" value="seconds"/>
</elem>
</struct>
<!-- Ionosperhic Correction -->
<struct name="IonosphericCorrection" pack="true">
<comment>Klobuchar Ionospheric Correction model parameters. See ICD200 para. 20.3.3.5.2.5</comment>
<elem name ="a0" type="int8" multiplicity="1">
<comment>alpha0 term of the polynomial in seconds. Value is integer encoded with scale factor 2^-30.</comment>
<tag name="unit" value="2^-30 seconds"/>
</elem>
<elem name ="a1" type="int8" multiplicity="1">
<comment>alpha1 term of the polynomial in seconds. Value is integer encoded with scale factor 2^-27.</comment>
<tag name="unit" value="2^-27 seconds"/>
</elem>
<elem name ="a2" type="int8" multiplicity="1">
<comment>alpha2 term of the polynomial in seconds. Value is integer encoded with scale factor 2^-24.</comment>
<tag name="unit" value="2^-24 seconds"/>
</elem>
<elem name ="a3" type="int8" multiplicity="1">
<comment>alpha3 term of the polynomial in seconds. Value is integer encoded with scale factor 2^-24.</comment>
<tag name="unit" value="2^-24 seconds"/>
</elem>
<elem name ="b0" type="int8" multiplicity="1">
<comment>beta0 term of the polynomial in seconds. Value is integer encoded with scale factor 2^11.</comment>
<tag name="unit" value="2^11 seconds"/>
</elem>
<elem name ="b1" type="int8" multiplicity="1">
<comment>beta1 term of the polynomial in seconds. Value is integer encoded with scale factor 2^14.</comment>
<tag name="unit" value="2^14 seconds"/>
</elem>
<elem name ="b2" type="int8" multiplicity="1">
<comment>beta2 term of the polynomial in seconds. Value is integer encoded with scale factor 2^16.</comment>
<tag name="unit" value="2^16 seconds"/>
</elem>
<elem name ="b3" type="int8" multiplicity="1">
<comment>beta3 term of the polynomial in seconds. Value is integer encoded with scale factor 2^16.</comment>
<tag name="unit" value="2^16 seconds"/>
</elem>
</struct>
<!-- ConstellationData -->
<struct name="ConstellationData">
<comment>Grouping of constellation data. Reference frame is GPS.</comment>
<comment>Will be extended to include other constellation data.</comment>
<!-- this has been embedded in a device, Only add. -->
<array name="AlmanacArray" type="Almanac"/>
<array name="EphemerisArray" type="Ephemeris" />
<elem name ="constellation" type="Constellation" multiplicity="1" ord="64"/>
<elem name ="week" type="uint16" multiplicity="1" ord="65"/>
<elem name ="almanacs" type="AlmanacArray" multiplicity="0..1" ord="66"/>
<!-- the following are are decoded in C decoding API yet -->
<elem name ="ephemeris" type="EphemerisArray" multiplicity="0..1" ord="67"/>
<elem name ="utc" type="UtcParameters" multiplicity="0..1" ord="68"/>
<elem name ="iono" type="IonosphericCorrection" multiplicity="0..1" ord="69" />
</struct>
<struct name="ConstellationSet">
<comment>Set of ConstellationData</comment>
<elem name ="constellationData" type="ConstellationData" multiplicity="0..*" ord="64"/>
</struct>
<!--
*******************************************************
Acquisistion Assistance Data
*******************************************************
-->
<!-- AcqAssistElem -->
<struct name="AcqAssistElem" pack="true">
<comment>Acquisistion assistance for a single satellite.</comment>
<elem name ="id" type="SatelliteId" multiplicity="1"/>
<elem name ="doppler0" type="int16" multiplicity="1">
<comment>Doppler 0th order term. Value is integer encoded with scale factor 2^-21</comment>
<tag name="unit" value="2^-21"/>
</elem>
<elem name ="doppler1" type="int16" multiplicity="1">
<comment>doppler first order term in Hz/sec. Value is integer encoded with scale factor 2^12</comment>
<tag name="unit" value="2^12 seconds"/>
</elem>
<elem name ="codephase" type="uint16" multiplicity="1">
<comment>code phase 0-1022 in 1/8 code chips. Value is integer encoded with scale factor 2^-3</comment>
<tag name="unit" value="2^-3 code chips"/>
</elem>
<elem name ="CodeCount" type="uint16" multiplicity="1">
<comment>Integer count of whole code epochs including the GPS bit number range 0 - 80 counts. </comment>
<tag name="unit" value="code epochs"/>
</elem>
<elem name ="searchWindow" type="uint8" multiplicity="1">
<comment>Rate of right ascension in semi-circles/sec. Value is integer encoded with scale factor 2^-38</comment>
<tag name="unit" value="2^-38 seconds"/>
</elem>
<elem name ="azimuth" type="int8" multiplicity="1">
<comment>Azimuth in degrees. Value is a scaled integer encoded with scale factor 2.5</comment>
<tag name="unit" value="2.5 degrees"/>
</elem>
<elem name ="elevation" type="int8" multiplicity="1">
<comment>Elevation in degrees.</comment>
<tag name="unit" value="degrees"/>
</elem>
</struct>
<!-- AcqAssistSet -->
<struct name="AcqAssistSet">
<comment>A set of doppler acquisition assistance elements</comment>
<elem name="data" type="AcqAssistElem" multiplicity="1..*" polymorphic="false"/>
</struct>
<!--
*******************************************************
GNSS Measurement data
*******************************************************
-->
<!-- CodephaseMeasurementMin-->
<struct name="CodephaseMeasurementMin" pack="true">
<comment>
Measurement of a single satellite codephase. This is a more compact version without RMS error and multipath indicator.
These will be encoded in cno in a future version.
</comment>
<elem name ="id" type="uint8" multiplicity="1">
<comment>
Satellite identifier: 0 - 63. If set to 255 (0xff), the measurement is considered invalid and ignored.
This marks the end of measurements in fixed array sets. See GpsCodePhaseObsMin6 for an example.
</comment>
</elem>
<elem name ="cn0" type="uint8" multiplicity="1">
<comment>Carrier noise ratio.</comment>
<tag name="unit" value="ratio"/>
</elem>
<elem name ="doppler" type="int16" multiplicity="1">
<comment>Measured Doppler shift in Hz. Value is integer encoded with scale factor 0.2</comment>
<tag name="unit" value="0.2 Hz"/>
</elem>
<elem name ="codephase" type="uint24" multiplicity="1">
<comment>Whole and fractional parts of code phase. Value is integer encoded with scale factor 2^-10</comment>
<tag name="unit" value="2^-10 code chips"/>
</elem>
</struct>
<!-- CodephaseMeasurement -->
<struct name="CodephaseMeasurement" type="CodephaseMeasurementMin" pack="true">
<comment>Measurement of a single satellite codephase including mpathIndicator and rmsErr.</comment>
<elem name ="mpathIndicator" type="uint8" multiplicity="1">
<comment>Multipath indicator. Default value is 0.</comment>
</elem>
<elem name ="rmsErr" type="uint8" multiplicity="1">
<comment>Pseudo range RMS Error value indexed 0..63, default is 0</comment>
<tag name="unit" value="2.5 degrees"/>
</elem>
</struct>
<!-- Observation Data types-->
<struct name="GpsCodePhaseObs8" type="ObservationEpoch" pack="true" rttkey="HPE.ObservationType.GPS_CODEPHASE_8">
<comment>
Eight standard GPS code phase measurements: 9 + (9 x 8) = 81 bytes. Mark
the end of the unused or invalid measurements with id=255 (0xFF). They will be ignored.
</comment>
<array name ="CodephaseMeasurement8" type="CodephaseMeasurement" size="8"/>
<elem name ="measurements" type="CodephaseMeasurement8" multiplicity="1">
</elem>
</struct>
<struct name="GpsCodePhaseObsMin6" type="ObservationEpoch" pack="true" rttkey="HPE.ObservationType.GPS_CODEPHASE_MIN6">
<comment>
Six minimum size GPS code phase measurements: 9 + (7 x 6) = 51 bytes.
Mark the end of the unused or invalid measurements with id=255 (0xFF). They will be ignored.
</comment>
<array name ="CodephaseMeasurementMin6" type="CodephaseMeasurementMin" size="6"/>
<elem name ="measurements" type="CodephaseMeasurementMin6" multiplicity="1">
</elem>
</struct>
<struct name="GpsCodePhaseObsMin8" type="ObservationEpoch" pack="true" rttkey="HPE.ObservationType.GPS_CODEPHASE_MIN8">
<comment>
Eight minimum size GPS code phase measurements: 9 + (7 x 8) = 65 bytes.
Mark the end of the unused or invalid measurements with id=255 (0xFF). They will be ignored.
</comment>
<array name ="CodephaseMeasurementMin8" type="CodephaseMeasurementMin" size="8"/>
<elem name ="measurements" type="CodephaseMeasurementMin8" multiplicity="1">
</elem>
</struct>
<struct name="PseudorangeObservation" type="ObservationEpoch" rttkey="HPE.ObservationType.GNSS_PSEUDORANGE">
<comment>GNSS observation data in generic format suited for variable sized input.</comment>
<elem name ="id" type="SatelliteId" multiplicity="1"/>
<elem name ="prr" type="float64" multiplicity="1">
<comment>Pseudorange rate measurement in meters per second.</comment>
<tag name="unit" value="meters per second"/>
</elem>
<elem name ="pr" type="float64" multiplicity="1">
<comment>Pseudorange measurement in meters.</comment>
<tag name="unit" value="meters"/>
</elem>
<elem name ="prrUncert" type="float32" multiplicity="1">
<comment>Pseudorange rate measurement uncertainty in meters per second. This is the one standard deviation confidence (68%) uncertainty.</comment>
<tag name="unit" value="meters per second"/>
</elem>
<elem name ="prUncert" type="float32" multiplicity="1">
<comment>Pseudorange measurement uncertainty in meters. This is the one standard deviation confidence (68%) uncertainty.</comment>
<tag name="unit" value="meters"/>
</elem>
<elem name ="cn0" type="uint8" multiplicity="1">
<comment>Carrier noise ratio.</comment>
<tag name="unit" value="ratio"/>
</elem>
<elem name ="mpathIndicator" type="uint8" multiplicity="1">
<comment>Multipath indicator. Default value is 0.</comment>
</elem>
</struct>
</namespace>
</specification>
HPE/V2.0/HpeUsage.xid.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="HpeUsage.xid.xml">
<title>HPE Usage Messages</title>
<comment>This file the usage messages produced by the HPE.</comment>
<import ref="https://xid.location.studio/Tensor/V1.0.0/Definitions.xid.xml" local="Definitions.xid.xml" />
<import ref="https://xid.location.studio/HPE/V1.2/HpeCore.xid.xml" local="HpeCore.xid.xml" />
<import ref="https://xid.location.studio/Tensor/V1.0.0/Logging.xid.xml" local="Logging.xid.xml" />
<namespace name="HPE">
<using namespace="Tensor"/>
<using namespace="Logging"/>
<!--Initialization Report Msg-->
<struct name="InitializationReport" type="Logging.UsageMsg" rttkey='"tpf://hpe/initrpt"'>
<comment>
Message captures HPE initialization data.
</comment>
<elem name="state" type="StateInfo" multiplicity="1">
<comment>
State information.
</comment>
</elem>
</struct>
<!--Observation Report Msg-->
<struct name="ObservationReport" type="Logging.UsageMsg" rttkey='"tpf://hpe/obsrpt"'>
<comment>
Message captures HPE observation data for playback purposes and debugging.
</comment>
<elem name="observations" type="ObservationSet" multiplicity="1">
<comment>
Observation Data provided by the caller.
</comment>
</elem>
<elem name="refdata" type="ReferenceDataSet" multiplicity="0..1">
<comment>
Contains reference data provided by the caller.
</comment>
</elem>
<elem name="directive" multiplicity="0..*" type="Tensor.NameValue">
<comment>
A set of directives to influence processing. Unknown directives are ignored.
</comment>
</elem>
</struct>
<!--TaskReport Msg-->
<struct name="TaskReport" type="Logging.UsageMsg" rttkey='"tpf://hpe/taskrpt"'>
<comment>
Message reports processing task result data. Tasks are any computational elem
within the HPE including calculators, converters, estimators.
</comment>
<elem name="taskid" type="string" multiplicity="1">
<comment>
The unique tasks identifier. A source may have multiple tasks, this field assigns
an identifier that uniquely characterizes what the task was that was accomplished.
</comment>
</elem>
<elem name="start" type="datetime" multiplicity="1">
<comment>
The start time at which the processor is used.
</comment>
</elem>
<elem name="duration" type="uint16" multiplicity="1">
<tag name="unit" value="msec"/>
<comment>
The duration of the processing in msec. This is not meant to be a high
resolution duration monitoring, implement a metric counter for precise timing data.
</comment>
</elem>
<elem name="status" type="ProcessingStatus" multiplicity="1">
<comment>The result of the processor use, typically success or failure.</comment>
</elem>
</struct>
<!--Position Report Msg-->
<struct name="PositionReport" type="Logging.UsageMsg" rttkey='"tpf://hpe/posrpt"'>
<comment>
Usage message reports position information produced by HPE.
</comment>
<elem name="position" type="HPE.Spheroid" multiplicity="1">
<comment>The 2D/3D position reported. </comment>
</elem>
<elem name="speed" type="int16" multiplicity="1">
<tag name="unit" value="cm/sec"/>
<comment>The observed speed. O if not known.</comment>
</elem>
<elem name="heading" type="int16" multiplicity="1">
<tag name="unit" value="degrees"/>
<comment>Observed heading relative true north (azimuth).</comment>
</elem>
<elem name="veracity" type="byte" multiplicity="1">
<comment>
Veracity defines the validity of the measurement in the range between 0 and 100.
A high score means the estimate is deemed valid and more reliable than a lower score.
If no veracity scoring is performed, this will have a value of 255
</comment>
</elem>
<elem name="confidence" type="byte" multiplicity="1">
<comment>The estimate confidence. Valid range is 0 to 100</comment>
</elem>
<elem name="calctype" type="string" multiplicity="1">
<comment>
Positioning calculation stereo type specifier (hybrid, cellular, slam, etc.). If not defined set to "".
</comment>
</elem>
<elem name="obstype" type="ObservationType" multiplicity="1">
<comment>The last observation type used to create the estimate.</comment>
</elem>
</struct>
</namespace>
</specification>
HPE/V2.0/HpeWiFi.xid.xml 0 → 100644
<?xml version="1.0" encoding="UTF-8" ?>
<specification xmlns="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xid="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd"
xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:schemaLocation="https://xid.location.studio/schema/V1.0.0/XtensibleInterfaceDefinition.xsd XtensibleInterfaceDefinition.xsd"
identity="HpeWiFi.xid.xml">
<title>HPE Wi-Fi Data Definition</title>
<comment>File contains data definitions observation datatypes.</comment>
<import ref="https://xid.location.studio/Tensor/V1.0.0/Definitions.xid.xml" local="Definitions.xid.xml" />
<import ref="https://xid.location.studio/HPE/V1.2/HpeCore.xid.xml" local="HpeCore.xid.xml" />
<namespace name="HPE.WiFi">
<using namespace="Tensor"/>
<using namespace="HPE"/>
<array name="SSID" type="int8" size="33">
<comment>ssid string of wifi access point</comment>
</array>
<struct name="WiFiRssi" type="ObservationEpoch" pack="true" rttkey="HPE.ObservationType.WIFI_RSS">
<comment>Wi-Fi RSSI observation</comment>
<elem name ="rssi" type="uint8" multiplicity="1">
<tag name="unit" value="-dBm"/>
<comment>RSS signal measured value(used as negative). </comment>
</elem>
<elem name ="macaddr" type="mac48" multiplicity="1">
<comment>Access point mac address</comment>
</elem>
</struct>
<struct name="WiFiRssiExt" type="WiFiRssi" rttkey="HPE.ObservationType.WIFI_RSS_EXT">
<comment>Extension of the WifiRssi data structure</comment>
<elem name="ssid" type="SSID" multiplicity="1">
<comment>ssid of the wifi access point</comment>
</elem>
<elem name="freq" type="float32" multiplicity="1">
<comment>Radio frequency of the Wifi Access point</comment>
</elem>
<elem name="uncert" type="float32" multiplicity="1">
<comment> uncertainty of the rssi measurements</comment>
</elem>
</struct>
</namespace>
</specification>
HPE/V2.0/XIDData.prop 0 → 100644
Idx.HPE.Arc.direction=3
Idx.HPE.Arc.inner=2
Idx.HPE.Arc.opening=4
Idx.HPE.Arc.outer=1
Idx.HPE.Arc3D.direction=4
Idx.HPE.Arc3D.height=1
Idx.HPE.Arc3D.inner=3
Idx.HPE.Arc3D.opening=5
Idx.HPE.Arc3D.outer=2
Idx.HPE.ArcBand.direction=6
Idx.HPE.ArcBand.major_inner=2
Idx.HPE.ArcBand.major_outer=1
Idx.HPE.ArcBand.minor_inner=4
Idx.HPE.ArcBand.minor_outer=3
Idx.HPE.ArcBand.opening=7
Idx.HPE.ArcBand.orient=5
Idx.HPE.ArcBand3D.direction=2
Idx.HPE.ArcBand3D.height=1
Idx.HPE.ArcBand3D.opening=4
Idx.HPE.ArcBand3D.radius=6
Idx.HPE.ArcBand3D.tilt=3
Idx.HPE.ArcBand3D.vopening=5
Idx.HPE.Cellular.AntennaSpec.RTTCalib=10
Idx.HPE.Cellular.AntennaSpec.RTTCalibUncert=11
Idx.HPE.Cellular.AntennaSpec.TxPower=8
Idx.HPE.Cellular.AntennaSpec.direction=3
Idx.HPE.Cellular.AntennaSpec.frequency=9
Idx.HPE.Cellular.AntennaSpec.height=2
Idx.HPE.Cellular.AntennaSpec.opening=5
Idx.HPE.Cellular.AntennaSpec.radius=7
Idx.HPE.Cellular.AntennaSpec.sectorid=1
Idx.HPE.Cellular.AntennaSpec.tilt=4
Idx.HPE.Cellular.AntennaSpec.vopening=6
Idx.HPE.Cellular.CellAntReferenceData.antenna=2
Idx.HPE.Cellular.CellAntReferenceData.cid=1
Idx.HPE.Cellular.CellAntReferenceData.location=3
Idx.HPE.Cellular.CellId.cid=6
Idx.HPE.Cellular.CellId.lac=5
Idx.HPE.Cellular.CellId.mcc=3
Idx.HPE.Cellular.CellId.mnc=4
Idx.HPE.Cellular.CellId.mncLength=2
Idx.HPE.Cellular.CellId.rtype=1
Idx.HPE.Cellular.CellLocInfo.alt=3
Idx.HPE.Cellular.CellLocInfo.lat=1
Idx.HPE.Cellular.CellLocInfo.lon=2
Idx.HPE.Cellular.CellLocInfo.radius=4
Idx.HPE.Cellular.CellLocInfo.vert=5
Idx.HPE.Cellular.CellularObservation.cid=1
Idx.HPE.Cellular.GenericInfo.rss=1
Idx.HPE.Cellular.GenericInfo.rssUncert=2
Idx.HPE.Cellular.GenericInfo.service=6
Idx.HPE.Cellular.GenericInfo.taHighPart=4
Idx.HPE.Cellular.GenericInfo.taLowPart=3
Idx.HPE.Cellular.GenericInfo.taUncert=5
Idx.HPE.Cellular.LteRssiInfo.nprb=3
Idx.HPE.Cellular.LteRssiInfo.rsrp=1
Idx.HPE.Cellular.LteRssiInfo.rsrq=2
Idx.HPE.Cellular.LteTimeAdvanceInfo.aoa=3
Idx.HPE.Cellular.LteTimeAdvanceInfo.ta=2
Idx.HPE.Cellular.LteTimeAdvanceInfo.tamode=1
Idx.HPE.Cellular.LteTimeAdvanceInfo.uerxtx=4
Idx.HPE.Cellular.MSISDNObservation.cc=1
Idx.HPE.Cellular.MSISDNObservation.nsn=2
Idx.HPE.Cellular.MeasuredResultInfo.cpichEcNO=3
Idx.HPE.Cellular.MeasuredResultInfo.cpichRSCP=2
Idx.HPE.Cellular.MeasuredResultInfo.deltaRSCP=5
Idx.HPE.Cellular.MeasuredResultInfo.dupmode=1
Idx.HPE.Cellular.MeasuredResultInfo.pathloss=4
Idx.HPE.Cellular.NMRInfo.arfcn=1
Idx.HPE.Cellular.NMRInfo.bsic=2
Idx.HPE.Cellular.NMRInfo.rxlevel=3
Idx.HPE.Cellular.RttInfo.exrtt=5
Idx.HPE.Cellular.RttInfo.quality=3
Idx.HPE.Cellular.RttInfo.rtt=4
Idx.HPE.Cellular.RttInfo.rxtxtime=2
Idx.HPE.Cellular.RttInfo.tamode=1
Idx.HPE.Cellular.TimeAdvance.ta=1
Idx.HPE.Circle.radius=1
Idx.HPE.Covariance.covariance=2
Idx.HPE.Covariance.referenceframe=3
Idx.HPE.Covariance.state=1
Idx.HPE.Ellipse.major=1
Idx.HPE.Ellipse.minor=2
Idx.HPE.Ellipse.orient=3
Idx.HPE.Ellipsoid.major=1
Idx.HPE.Ellipsoid.minor=2
Idx.HPE.Ellipsoid.orient=3
Idx.HPE.Ellipsoid.vert=4
Idx.HPE.Gnss.AcqAssistElem.CodeCount=5
Idx.HPE.Gnss.AcqAssistElem.azimuth=7
Idx.HPE.Gnss.AcqAssistElem.codephase=4
Idx.HPE.Gnss.AcqAssistElem.doppler0=2
Idx.HPE.Gnss.AcqAssistElem.doppler1=3
Idx.HPE.Gnss.AcqAssistElem.elevation=8
Idx.HPE.Gnss.AcqAssistElem.id=1
Idx.HPE.Gnss.AcqAssistElem.searchWindow=6
Idx.HPE.Gnss.Almanac.M0=11
Idx.HPE.Gnss.Almanac.Omega0=9
Idx.HPE.Gnss.Almanac.OmegaDot=4
Idx.HPE.Gnss.Almanac.SvHealth=12
Idx.HPE.Gnss.Almanac.af0=5
Idx.HPE.Gnss.Almanac.af1=6
Idx.HPE.Gnss.Almanac.deltai0=3
Idx.HPE.Gnss.Almanac.eccentricity=7
Idx.HPE.Gnss.Almanac.id=1
Idx.HPE.Gnss.Almanac.omega=10
Idx.HPE.Gnss.Almanac.sqrtA=8
Idx.HPE.Gnss.Almanac.toa=2
Idx.HPE.Gnss.CodephaseMeasurement.mpathIndicator=1
Idx.HPE.Gnss.CodephaseMeasurement.rmsErr=2
Idx.HPE.Gnss.CodephaseMeasurementMin.cn0=2
Idx.HPE.Gnss.CodephaseMeasurementMin.codephase=4
Idx.HPE.Gnss.CodephaseMeasurementMin.doppler=3
Idx.HPE.Gnss.CodephaseMeasurementMin.id=1
Idx.HPE.Gnss.Ephemeris.Cic=14
Idx.HPE.Gnss.Ephemeris.Cis=13
Idx.HPE.Gnss.Ephemeris.Crc=16
Idx.HPE.Gnss.Ephemeris.Crs=15
Idx.HPE.Gnss.Ephemeris.Cuc=18
Idx.HPE.Gnss.Ephemeris.Cus=17
Idx.HPE.Gnss.Ephemeris.M0=10
Idx.HPE.Gnss.Ephemeris.Omega0=8
Idx.HPE.Gnss.Ephemeris.OmegaDot=6
Idx.HPE.Gnss.Ephemeris.SvHealth=25
Idx.HPE.Gnss.Ephemeris.TGD=24
Idx.HPE.Gnss.Ephemeris.af0=21
Idx.HPE.Gnss.Ephemeris.af1=22
Idx.HPE.Gnss.Ephemeris.af2=23
Idx.HPE.Gnss.Ephemeris.deltan=11
Idx.HPE.Gnss.Ephemeris.eccentricity=4
Idx.HPE.Gnss.Ephemeris.i0=5
Idx.HPE.Gnss.Ephemeris.id=1
Idx.HPE.Gnss.Ephemeris.idot=12
Idx.HPE.Gnss.Ephemeris.iodc=20
Idx.HPE.Gnss.Ephemeris.iode=3
Idx.HPE.Gnss.Ephemeris.omega=9
Idx.HPE.Gnss.Ephemeris.sqrtA=7
Idx.HPE.Gnss.Ephemeris.toc=19
Idx.HPE.Gnss.Ephemeris.toe=2
Idx.HPE.Gnss.GpsCodePhaseObs8.measurements=1
Idx.HPE.Gnss.GpsCodePhaseObsMin6.measurements=1
Idx.HPE.Gnss.GpsCodePhaseObsMin8.measurements=1
Idx.HPE.Gnss.IonosphericCorrection.a0=1
Idx.HPE.Gnss.IonosphericCorrection.a1=2
Idx.HPE.Gnss.IonosphericCorrection.a2=3
Idx.HPE.Gnss.IonosphericCorrection.a3=4
Idx.HPE.Gnss.IonosphericCorrection.b0=5
Idx.HPE.Gnss.IonosphericCorrection.b1=6
Idx.HPE.Gnss.IonosphericCorrection.b2=7
Idx.HPE.Gnss.IonosphericCorrection.b3=8
Idx.HPE.Gnss.PseudorangeObservation.cn0=6
Idx.HPE.Gnss.PseudorangeObservation.id=1
Idx.HPE.Gnss.PseudorangeObservation.mpathIndicator=7
Idx.HPE.Gnss.PseudorangeObservation.pr=3
Idx.HPE.Gnss.PseudorangeObservation.prUncert=5
Idx.HPE.Gnss.PseudorangeObservation.prr=2
Idx.HPE.Gnss.PseudorangeObservation.prrUncert=4
Idx.HPE.Gnss.SatelliteId.constellation=1
Idx.HPE.Gnss.SatelliteId.id=2
Idx.HPE.Gnss.UtcParameters.DN=7
Idx.HPE.Gnss.UtcParameters.DeltaTls=3
Idx.HPE.Gnss.UtcParameters.DeltaTlsf=8
Idx.HPE.Gnss.UtcParameters.WNlsf=6
Idx.HPE.Gnss.UtcParameters.WNt=5
Idx.HPE.Gnss.UtcParameters.a0=1
Idx.HPE.Gnss.UtcParameters.a1=2
Idx.HPE.Gnss.UtcParameters.tot=4
Idx.HPE.Observation.type=1
Idx.HPE.ObservationEpoch.epoch=1
Idx.HPE.Point2D.lat=1
Idx.HPE.Point2D.lon=2
Idx.HPE.Point3D.alt=1
Idx.HPE.ReferenceData.format=1
Idx.HPE.Shape.type=1
Idx.HPE.Spheroid.radius=1
Idx.HPE.Spheroid.vert=2
Idx.HPE.WiFi.WiFiRssi.macaddr=2
Idx.HPE.WiFi.WiFiRssi.rssi=1
Idx.HPE.WiFi.WiFiRssiExt.freq=2
Idx.HPE.WiFi.WiFiRssiExt.ssid=1
Idx.HPE.WiFi.WiFiRssiExt.uncert=3
Off.HPE.Arc.direction=25
Off.HPE.Arc.inner=21
Off.HPE.Arc.opening=29
Off.HPE.Arc.outer=17
Off.HPE.Arc3D.direction=37
Off.HPE.Arc3D.height=25
Off.HPE.Arc3D.inner=33
Off.HPE.Arc3D.opening=41
Off.HPE.Arc3D.outer=29
Off.HPE.ArcBand.direction=37
Off.HPE.ArcBand.major_inner=21
Off.HPE.ArcBand.major_outer=17
Off.HPE.ArcBand.minor_inner=29
Off.HPE.ArcBand.minor_outer=25
Off.HPE.ArcBand.opening=41
Off.HPE.ArcBand.orient=33
Off.HPE.ArcBand3D.direction=29
Off.HPE.ArcBand3D.height=25
Off.HPE.ArcBand3D.opening=37
Off.HPE.ArcBand3D.radius=45
Off.HPE.ArcBand3D.tilt=33
Off.HPE.ArcBand3D.vopening=41
Off.HPE.Cellular.AntennaSpec.RTTCalib=42
Off.HPE.Cellular.AntennaSpec.RTTCalibUncert=46
Off.HPE.Cellular.AntennaSpec.TxPower=26
Off.HPE.Cellular.AntennaSpec.direction=6
Off.HPE.Cellular.AntennaSpec.frequency=34
Off.HPE.Cellular.AntennaSpec.height=2
Off.HPE.Cellular.AntennaSpec.opening=14
Off.HPE.Cellular.AntennaSpec.radius=22
Off.HPE.Cellular.AntennaSpec.sectorid=0
Off.HPE.Cellular.AntennaSpec.tilt=10
Off.HPE.Cellular.AntennaSpec.vopening=18
Off.HPE.Cellular.CellAntReferenceData.antenna=13
Off.HPE.Cellular.CellAntReferenceData.cid=1
Off.HPE.Cellular.CellAntReferenceData.location=63
Off.HPE.Cellular.CellId.cid=8
Off.HPE.Cellular.CellId.lac=6
Off.HPE.Cellular.CellId.mcc=2
Off.HPE.Cellular.CellId.mnc=4
Off.HPE.Cellular.CellId.mncLength=1
Off.HPE.Cellular.CellId.rtype=0
Off.HPE.Cellular.CellLocInfo.alt=16
Off.HPE.Cellular.CellLocInfo.lat=0
Off.HPE.Cellular.CellLocInfo.lon=8
Off.HPE.Cellular.CellLocInfo.radius=24
Off.HPE.Cellular.CellLocInfo.vert=28
Off.HPE.Cellular.CellularObservation.cid=9
Off.HPE.Cellular.GenericInfo.rss=21
Off.HPE.Cellular.GenericInfo.rssUncert=25
Off.HPE.Cellular.GenericInfo.service=31
Off.HPE.Cellular.GenericInfo.taHighPart=28
Off.HPE.Cellular.GenericInfo.taLowPart=26
Off.HPE.Cellular.GenericInfo.taUncert=29
Off.HPE.Cellular.LteRssiInfo.nprb=23
Off.HPE.Cellular.LteRssiInfo.rsrp=21
Off.HPE.Cellular.LteRssiInfo.rsrq=22
Off.HPE.Cellular.LteTimeAdvanceInfo.aoa=24
Off.HPE.Cellular.LteTimeAdvanceInfo.ta=22
Off.HPE.Cellular.LteTimeAdvanceInfo.tamode=21
Off.HPE.Cellular.LteTimeAdvanceInfo.uerxtx=26
Off.HPE.Cellular.MSISDNObservation.cc=1
Off.HPE.Cellular.MSISDNObservation.nsn=3
Off.HPE.Cellular.MeasuredResultInfo.cpichEcNO=23
Off.HPE.Cellular.MeasuredResultInfo.cpichRSCP=22
Off.HPE.Cellular.MeasuredResultInfo.deltaRSCP=25
Off.HPE.Cellular.MeasuredResultInfo.dupmode=21
Off.HPE.Cellular.MeasuredResultInfo.pathloss=24
Off.HPE.Cellular.NMRInfo.arfcn=21
Off.HPE.Cellular.NMRInfo.bsic=23
Off.HPE.Cellular.NMRInfo.rxlevel=25
Off.HPE.Cellular.RttInfo.exrtt=27
Off.HPE.Cellular.RttInfo.quality=24
Off.HPE.Cellular.RttInfo.rtt=25
Off.HPE.Cellular.RttInfo.rxtxtime=22
Off.HPE.Cellular.RttInfo.tamode=21
Off.HPE.Cellular.TimeAdvance.ta=21
Off.HPE.Circle.radius=17
Off.HPE.Covariance.covariance=65
Off.HPE.Covariance.referenceframe=577
Off.HPE.Covariance.state=1
Off.HPE.Ellipse.major=17
Off.HPE.Ellipse.minor=21
Off.HPE.Ellipse.orient=25
Off.HPE.Ellipsoid.major=25
Off.HPE.Ellipsoid.minor=29
Off.HPE.Ellipsoid.orient=33
Off.HPE.Ellipsoid.vert=37
Off.HPE.Gnss.AcqAssistElem.CodeCount=8
Off.HPE.Gnss.AcqAssistElem.azimuth=11
Off.HPE.Gnss.AcqAssistElem.codephase=6
Off.HPE.Gnss.AcqAssistElem.doppler0=2
Off.HPE.Gnss.AcqAssistElem.doppler1=4
Off.HPE.Gnss.AcqAssistElem.elevation=12
Off.HPE.Gnss.AcqAssistElem.id=0
Off.HPE.Gnss.AcqAssistElem.searchWindow=10
Off.HPE.Gnss.Almanac.M0=21
Off.HPE.Gnss.Almanac.Omega0=15
Off.HPE.Gnss.Almanac.OmegaDot=4
Off.HPE.Gnss.Almanac.SvHealth=24
Off.HPE.Gnss.Almanac.af0=6
Off.HPE.Gnss.Almanac.af1=8
Off.HPE.Gnss.Almanac.deltai0=2
Off.HPE.Gnss.Almanac.eccentricity=10
Off.HPE.Gnss.Almanac.id=0
Off.HPE.Gnss.Almanac.omega=18
Off.HPE.Gnss.Almanac.sqrtA=12
Off.HPE.Gnss.Almanac.toa=1
Off.HPE.Gnss.CodephaseMeasurement.mpathIndicator=7
Off.HPE.Gnss.CodephaseMeasurement.rmsErr=8
Off.HPE.Gnss.CodephaseMeasurementMin.cn0=1
Off.HPE.Gnss.CodephaseMeasurementMin.codephase=4
Off.HPE.Gnss.CodephaseMeasurementMin.doppler=2
Off.HPE.Gnss.CodephaseMeasurementMin.id=0
Off.HPE.Gnss.Ephemeris.Cic=37
Off.HPE.Gnss.Ephemeris.Cis=35
Off.HPE.Gnss.Ephemeris.Crc=41
Off.HPE.Gnss.Ephemeris.Crs=39
Off.HPE.Gnss.Ephemeris.Cuc=45
Off.HPE.Gnss.Ephemeris.Cus=43
Off.HPE.Gnss.Ephemeris.M0=27
Off.HPE.Gnss.Ephemeris.Omega0=19
Off.HPE.Gnss.Ephemeris.OmegaDot=12
Off.HPE.Gnss.Ephemeris.SvHealth=58
Off.HPE.Gnss.Ephemeris.TGD=57
Off.HPE.Gnss.Ephemeris.af0=51
Off.HPE.Gnss.Ephemeris.af1=54
Off.HPE.Gnss.Ephemeris.af2=56
Off.HPE.Gnss.Ephemeris.deltan=31
Off.HPE.Gnss.Ephemeris.eccentricity=4
Off.HPE.Gnss.Ephemeris.i0=8
Off.HPE.Gnss.Ephemeris.id=0
Off.HPE.Gnss.Ephemeris.idot=33
Off.HPE.Gnss.Ephemeris.iodc=49
Off.HPE.Gnss.Ephemeris.iode=3
Off.HPE.Gnss.Ephemeris.omega=23
Off.HPE.Gnss.Ephemeris.sqrtA=15
Off.HPE.Gnss.Ephemeris.toc=47
Off.HPE.Gnss.Ephemeris.toe=1
Off.HPE.Gnss.GpsCodePhaseObs8.measurements=9
Off.HPE.Gnss.GpsCodePhaseObsMin6.measurements=9
Off.HPE.Gnss.GpsCodePhaseObsMin8.measurements=9
Off.HPE.Gnss.IonosphericCorrection.a0=0
Off.HPE.Gnss.IonosphericCorrection.a1=1
Off.HPE.Gnss.IonosphericCorrection.a2=2
Off.HPE.Gnss.IonosphericCorrection.a3=3
Off.HPE.Gnss.IonosphericCorrection.b0=4
Off.HPE.Gnss.IonosphericCorrection.b1=5
Off.HPE.Gnss.IonosphericCorrection.b2=6
Off.HPE.Gnss.IonosphericCorrection.b3=7
Off.HPE.Gnss.PseudorangeObservation.cn0=35
Off.HPE.Gnss.PseudorangeObservation.id=9
Off.HPE.Gnss.PseudorangeObservation.mpathIndicator=36
Off.HPE.Gnss.PseudorangeObservation.pr=19
Off.HPE.Gnss.PseudorangeObservation.prUncert=31
Off.HPE.Gnss.PseudorangeObservation.prr=11
Off.HPE.Gnss.PseudorangeObservation.prrUncert=27
Off.HPE.Gnss.SatelliteId.constellation=0
Off.HPE.Gnss.SatelliteId.id=1
Off.HPE.Gnss.UtcParameters.DN=11
Off.HPE.Gnss.UtcParameters.DeltaTls=7
Off.HPE.Gnss.UtcParameters.DeltaTlsf=12
Off.HPE.Gnss.UtcParameters.WNlsf=10
Off.HPE.Gnss.UtcParameters.WNt=9
Off.HPE.Gnss.UtcParameters.a0=0
Off.HPE.Gnss.UtcParameters.a1=4
Off.HPE.Gnss.UtcParameters.tot=8
Off.HPE.Observation.type=0
Off.HPE.ObservationEpoch.epoch=1
Off.HPE.Point2D.lat=1
Off.HPE.Point2D.lon=9
Off.HPE.Point3D.alt=17
Off.HPE.ReferenceData.format=0
Off.HPE.Shape.type=0
Off.HPE.Spheroid.radius=25
Off.HPE.Spheroid.vert=29
Off.HPE.WiFi.WiFiRssi.macaddr=10
Off.HPE.WiFi.WiFiRssi.rssi=9
Off.HPE.WiFi.WiFiRssiExt.freq=49
Off.HPE.WiFi.WiFiRssiExt.ssid=16
Off.HPE.WiFi.WiFiRssiExt.uncert=53
Ord.HPE.Estimate.confidence=69
Ord.HPE.Estimate.epoch=68
Ord.HPE.Estimate.obstype=66
Ord.HPE.Estimate.result=64
Ord.HPE.Estimate.shape=70
Ord.HPE.Estimate.source=65
Ord.HPE.Estimate.tic=67
Ord.HPE.Estimate.veracity=71
Ord.HPE.Gnss.AcqAssistSet.data=64
Ord.HPE.Gnss.ConstellationData.almanacs=66
Ord.HPE.Gnss.ConstellationData.constellation=64
Ord.HPE.Gnss.ConstellationData.ephemeris=67
Ord.HPE.Gnss.ConstellationData.iono=69
Ord.HPE.Gnss.ConstellationData.utc=68
Ord.HPE.Gnss.ConstellationData.week=65
Ord.HPE.Gnss.ConstellationSet.constellationData=64
Ord.HPE.InitializationReport.state=112
Ord.HPE.ObservationReport.directive=114
Ord.HPE.ObservationReport.observations=112
Ord.HPE.ObservationReport.refdata=113
Ord.HPE.ObservationSet.observations=64
Ord.HPE.PositionReport.calctype=117
Ord.HPE.PositionReport.confidence=116
Ord.HPE.PositionReport.heading=114
Ord.HPE.PositionReport.obstype=118
Ord.HPE.PositionReport.position=112
Ord.HPE.PositionReport.speed=113
Ord.HPE.PositionReport.veracity=115
Ord.HPE.ReferenceDataSet.id=64
Ord.HPE.ReferenceDataSet.records=65
Ord.HPE.StateInfo.azimuth=68
Ord.HPE.StateInfo.confidence=65
Ord.HPE.StateInfo.epoch=64
Ord.HPE.StateInfo.shape=66
Ord.HPE.StateInfo.source=69
Ord.HPE.StateInfo.speed=67
Ord.HPE.TaskReport.duration=114
Ord.HPE.TaskReport.start=113
Ord.HPE.TaskReport.status=115
Ord.HPE.TaskReport.taskid=112
Ord.Logging.ActionMsg.category=98
Ord.Logging.ActionMsg.id=96
Ord.Logging.ActionMsg.iid=99
Ord.Logging.ActionMsg.severity=97
Ord.Logging.AppMetrics.currentCount=81
Ord.Logging.AppMetrics.failureCount=86
Ord.Logging.AppMetrics.peakCount=82
Ord.Logging.AppMetrics.peakTime=84
Ord.Logging.AppMetrics.successCount=85
Ord.Logging.AppMetrics.totalCount=80
Ord.Logging.AppMetrics.totalTime=83
Ord.Logging.DebugInfo.file=64
Ord.Logging.DebugInfo.line=65
Ord.Logging.DebugInfo.thid=66
Ord.Logging.MessageBase.data=68
Ord.Logging.MessageBase.date=65
Ord.Logging.MessageBase.debug=69
Ord.Logging.MessageBase.info=67
Ord.Logging.MessageBase.source=66
Ord.Logging.MessageBase.type=64
Ord.Logging.Metric.metricType=64
Ord.Logging.Metric.name=65
Ord.Logging.MetricMsg.duration=81
Ord.Logging.MetricMsg.metrics=82
Ord.Logging.MetricMsg.start=80
Ord.Logging.PegCount.value=80
Ord.Logging.TaskReport.duration=114
Ord.Logging.TaskReport.start=113
Ord.Logging.TaskReport.status=115
Ord.Logging.TaskReport.taskid=112
Ord.Logging.TraceMsg.level=96
Ord.Logging.TransactionMsg.acctid=82
Ord.Logging.TransactionMsg.appid=84
Ord.Logging.TransactionMsg.devid=83
Ord.Logging.TransactionMsg.etid=81
Ord.Logging.TransactionMsg.tid=80
Ord.Logging.UsageMsg.uri=96
Ord.Tensor.NameValue.name=64
Ord.Tensor.NameValue.value=65
Ord.Tensor.VoidType.reserved=64
Size.HPE.Arc3D=45
Size.HPE.Arc=33
Size.HPE.ArcBand3D=49
Size.HPE.ArcBand=45
Size.HPE.Cellular.AntennaSpec=50
Size.HPE.Cellular.CellAntReferenceData=95
Size.HPE.Cellular.CellId=12
Size.HPE.Cellular.CellLocInfo=32
Size.HPE.Cellular.CellularObservation=21
Size.HPE.Cellular.GenericInfo=32
Size.HPE.Cellular.LteRssiInfo=24
Size.HPE.Cellular.LteTimeAdvanceInfo=28
Size.HPE.Cellular.MSISDNObservation=11
Size.HPE.Cellular.MeasuredResultInfo=26
Size.HPE.Cellular.NMRInfo=27
Size.HPE.Cellular.RttInfo=31
Size.HPE.Cellular.TimeAdvance=23
Size.HPE.Circle=21
Size.HPE.Covariance=578
Size.HPE.Ellipse=29
Size.HPE.Ellipsoid=41
Size.HPE.Estimate=-1
Size.HPE.Gnss.AcqAssistElem=13
Size.HPE.Gnss.AcqAssistSet=-1
Size.HPE.Gnss.Almanac=25
Size.HPE.Gnss.CodephaseMeasurement=9
Size.HPE.Gnss.CodephaseMeasurementMin=7
Size.HPE.Gnss.ConstellationData=-1
Size.HPE.Gnss.ConstellationSet=-1
Size.HPE.Gnss.Ephemeris=59
Size.HPE.Gnss.GpsCodePhaseObs8=81
Size.HPE.Gnss.GpsCodePhaseObsMin6=51
Size.HPE.Gnss.GpsCodePhaseObsMin8=65
Size.HPE.Gnss.IonosphericCorrection=8
Size.HPE.Gnss.PseudorangeObservation=37
Size.HPE.Gnss.SatelliteId=2
Size.HPE.Gnss.UtcParameters=13
Size.HPE.InitializationReport=-1
Size.HPE.Observation=1
Size.HPE.ObservationEpoch=9
Size.HPE.ObservationReport=-1
Size.HPE.ObservationSet=-1
Size.HPE.Point2D=17
Size.HPE.Point3D=25
Size.HPE.PositionReport=-1
Size.HPE.ReferenceData=1
Size.HPE.ReferenceDataSet=-1
Size.HPE.Shape=1
Size.HPE.Spheroid=33
Size.HPE.StateInfo=-1
Size.HPE.TaskReport=-1
Size.HPE.WiFi.WiFiRssi=16
Size.HPE.WiFi.WiFiRssiExt=57
Size.Logging.ActionMsg=-1
Size.Logging.AppMetrics=-1
Size.Logging.DebugInfo=-1
Size.Logging.MessageBase=-1
Size.Logging.Metric=-1
Size.Logging.MetricMsg=-1
Size.Logging.PegCount=-1
Size.Logging.TaskReport=-1
Size.Logging.TraceMsg=-1
Size.Logging.TransactionMsg=-1
Size.Logging.UsageMsg=-1
Size.Tensor.NameValue=-1
Size.Tensor.VoidType=-1
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