Geotab Software Development Kit


Geotab offers more data points of connection with robust, scalable and reliable tools. The SDK features sample code and projects to get first-time developers with Geotab started.


The Geotab SDK (Software Development Kit) is a powerful set of tools for automating tasks and working with data in MyGeotab. Within these documents you will find information on how to develop JavaScript and C# applications, build and integrate Add-Ins and use MyGeotab with third-party systems.

Various working examples are included in this SDK for use as a starting point with your own code e.g.:

  • Integrate an embedded MyGeotab frame in your web application (real time map, vehicle listing and more)
  • Create your own web interface to import and export Geotab data

Accessing the device’s data

The Geotab Data Feed API is a scalable, efficient and secure method to access all the device’s data.

There are three different types of data that can be requested from the API:

  • LogRecords (such as position and speed)
  • StatusData (readings of vehicle measurements e.g. oil temperature or acceleration)
  • FaultData (fault codes and measurements reported by the engine)

The data feed service sample application allows the feed to be installed as a Windows service and run continuously in the background downloading data from the server (see here).

Importing, exporting and synchronizing

Geotab has a set of pre-made applications (which include full source code) for synchronizing MyGeotab data and can be used for example to:

  • Import your customer list from a CRM (Customer Relationship Management) system
  • Download your vehicle maintenance records into a maintenance system (DVIR)
  • Keep your routes up to date based the day’s deliveries
  • Synchronize your vehicle groups based on the vehicle’s role in the company
  • Track Hours of Service (HOS) for regulations compliance

You can start using these tools right now by downloading the C# examples here and the JavaScript examples here.

Automating tasks

Common tasks that you perform online using MyGeotab can all be automated using the Geotab API. You can create time-saving scripts or automated processes such as:

  • When a new pick-up arrives, automate the dispatching by sending a text message to the vehicle’s Garmin through an attached GO device
  • Synchronize your customer’s location with the closest vehicle when a new work order is created

Working with Add-Ins

Geotab has developed a number of Add-In products which can be easily integrated into your MyGeotab UI. The benefits of using Add-Ins are:

  • Ready availability of Add-Ins to instantly integrate into your MyGeotab. Visit the Geotab Marketplace and the Developing Add-Ins SDK page to see the available Add-Ins
  • Versatility to create your own Add-In to customize a page or button to suit your needs

Integrating with MyGeotab

You can integrate an embedded version of MyGeotab into your own web application. This is perfect for providing a website to your customers with insight as to where their deliveries are and when they will arrive. You have control of which features appear on the embedded MyGeotab to create a seamless integration between your software and ours.

By using single sign-on authentication with the Geotab API, you have the ability to manage several options from your MyGeotab user accounts including:

  • Receiving an authentication token from MyGeotab for a valid username/password
  • Accepting the end user agreement on behalf of the user (this has legal implications)
  • Updating a user’s password
  • Adding and removing a user

Each of the MyGeotab pages has a URL (Uniform Resource Locator) associated with the page that allows that page to be embedded in your own application or linked to. This is a great way to leverage MyGeotab and make it part of your services. See here for more details

Integrating third-party tracking devices into MyGeotab

Third-party tracking devices can have their data added into the MyGeotab database. The Geotab API is used to provision and upload the devices data. Additionally data from these devices can be used in conjunction with data collected by Geotab GO devices. Contact Geotab support to have your third-party device added (each device type will receive a unique prefix code) and contact your reseller to handle billing.

Note: There may be differences in how devices from third-party manufacturers record the data; frequency of data collection and accuracy of the device record may vary. The rich information contained in the MyGeotab reports may not be fully available. Testing of these tracking device will be required to properly integrate the data into MyGeotab.

Please refer to Using third-party devices in MyGeotab for further details on using your own devices with MyGeotab.

Getting started

The Geotab API (Application Program Interface) is fully available to MyGeotab customers. Geotab provides helper libraries for C# and JavaScript; however, any language or application capable of making HTTP (HyperText Transfer Protocol) requests can access its full functionality. Only valid MyGeotab user credentials are required; special API keys or tokens are not necessary. Nonetheless, we recommend that the API be accessed with a dedicated user.

Note: The examples and source code presented in the Geotab SDK (Software Development Kit) require a modern browser. We recommend using the latest versions of Chrome, Firefox, Internet Explorer or Safari.

Steps to get started

For testing purposes we recommend setting up a test database and adding test devices to it. Remember, if you decide to test against a production database, data could be accidentally modified or lost.

Plug in a Geotab GO device

Refer to the “Geotab Support Documentation” for detailed instructions on how to install a device.

Register a new database

  1. To register, browse to
  1. You can now sign in to and access your database. Spend some time working through this guide and familiarize yourself with the key components of the application
  2. Add your GO device serial number to this database so you can collect some GPS, Engine and other useful data

What’s next?

There are several other items in the SDK to help you get started:

  • Concepts  Be sure to read through this before building your application
  • API Reference  the reference documentation that explains what each API call does and documents the parameters and results for each call
  • API Runner  an easy way to “play” with the API. Click on the “Runner” link from the API Reference. It is a tool that can be used to make method calls to a MyGeotab server and see what the results look like

Note: Remember you are not in a sandbox  you are executing API commands against a real database. For example, removing a Device via the API will really delete that device from the database!

  • JavaScript or .NET Code samples. The JavaScript sample are “live” and can be run against your database hosted on The .NET examples are downloadable and can be compiled and run against your MyGeotab server.

For additional support use the SDK forums. A number of solutions have already been provided in the forums. They are monitored by Geotab staff and other users of the SDK.


Requests made to the Geotab API are performed over HTTPS. The current API is version 1 — this is denoted in the API endpoint URL the web application will send requests to:


Note: The portions of the examples noted with < and > (e.g. <myserver>) indicate where the user will enter information specific to their requirements.

API request parameters and the results are transported in the lightweight JSON format. The API reference contains a listing of the methods that can be invoked, the parameters they expect and the results they return. Below are examples to illustrate the capabilities of the Geotab API.

Requests to the API can be invoked using HTTP GET or POST. HTTP POST requests uses the JSON-RPC standard. The following sections explain how to construct HTTP GET and POST requests to the Geotab API.

HTTP GET request

Methods can be invoked via HTTP GET request as follows:


Here is a simple example of invoking the method GetVersion. This method does not require any parameters and can be called without credentials:

The HTTP response is returned as JSON. For example:


Where the version will be the current version on the server.

Make your first API call

Here is a more complex example that requires parameters. For the sake of clarity, the example below is not URI (Universal Resource Identifier) encoded (more on this below). Both POST and GET requests are supported. This example shows a GET request that returns all devices (vehicles) and their properties.


The HTTP response is returned a JSON object (shortened for example purposes). The return will be in this format:

{"result":[{"name":"Pickup truck", "id":"b0123"...

The full set of API methods and objects returned can be viewed by clicking on the API Reference. When utilizing methods which require the user to send their login credentials as part of the URL, it is advised to take precautions regarding visibility of their password to other parties.

To understand how the parameters were passed in the URL, consider the following JSON object that needs to be passed to the method:


Using an HTTP query string, all the JSON object properties above are serialized after the method name in the query string as key/value pairs, separated by ampersand characters as follows:



Specific example:


Note that in the examples above, the property credentials are objects. In this case, stringify the JSON object and set that as the property value. Also take note that the query string should be properly URI encoded; paste the example below here and select decode URL. The final HTTP GET request looks as follows:


The MyGeotab API also supports JSONP when doing HTTP GET requests from JavaScript. This can be useful when writing a standalone HTML/JavaScript app. See the Using in JavaScript section for more information.

HTTP POST request

When using HTTP POST request to invoke an API method, the same endpoint as the GET is used:


However, instead of encoding the method name and parameters in the query string, it is passed in the HTTP body using the JSON-RPC format. Geotab API version 1 supports JSON-RPC version 1.0.

The following is a JavaScript example that shows how an HTTP POST can be used to invoke a method. Note that this can be done from any language that has support for HTTP, for example the class in Java or System.Net.HttpWebRequest in Microsoft .Net can be utilized.

var request = new XMLHttpRequest();"POST", "", true);
request.setRequestHeader("Content-Type", "application/x-www-form-urlencoded");
request.onreadystatechange = function () {
        if (request.readyState === 4) {
                if (request.status === 200) {
                        var json = JSON.parse(request.responseText);
                        if (json.result) {
                                // Work with your result
                                // Simple example just alerts its presence
                                alert("Received Data");

// Send the HTTP BODY in the JSON-RPC format. ID is ignored
// and can be set to -1.
// The method being called is “Get”.
// The “Get” method’s parameters are then passed in the “params” property

var apiMethod = {
        "id" : -1,
        "method" : "Get",
        "params" : {
                "typeName" : "Device",
                "credentials" : {
                        "database" : "demo",
                        "userName" : "",
                        "sessionId" : "xxx"

request.send("JSON-RPC=" + encodeURIComponent(JSON.stringify(apiMethod)));

Results & errors

Using the example above, a successful call to the server will result in an object with property “result”, in this format:





However, when the call is incorrect or an error is triggered on the server, the error will be returned as an object with property “error”. For example:

        "message":"Incorrect Checkmate login credentials",
            "message":"Incorrect Checkmate login credentials"

The properties of the error object are




For all JSON-RPC errors this is always “JSONRPCError”.


The description of the likely root cause of the error.


An array of individual errors that were caught. Usually, there is at least one error in this array.

The properties for objects in the “errors” array are:




The name of the server exception. For example, “InvalidUserException”, “NullReferenceException”, etc.


The description associated with the server exception.


If there is a stack trace, this will be a string of method calls that led to this server exception triggering. This field may not always be present, depending on the server exception that was triggered.

See Example 3: Dealing with a database move or credential expiry for an example of a case where it would be useful to catch and handle errors.


Data is stored on one of many servers in our cloud. A group of servers is referred to a federation of servers. For example, the federation consists of, andmany other servers.

While it is tempting to simply “hard code” the application to point to a particular server, such as, this is the incorrect approach. Over the course of time a database is not guaranteed to remain on the same server. It is common for load balancing to occur and resources to be transferred from one server to another as necessary. To prevent the application from losing its connection to the correct database, authentication calls must be made to the root federation server instead of making the request to a particular server.

As an example; making an authentication call to “” and authentication occurring. Such a call could be made as:

 If a redirect is necessary, the application will be informed and the correct server can be targeted. Below are special cases which should be considered when accessing the federation.

Example 1: Currently on the correct server

In this example, an authentication call is made to to log into the database “acme” and the server responds that the server is correct (e.g. no need to redirect).


  1. The Authenticate method is called with the given credentials
  2. The response from the server contains two important properties: path and credentials

The path will either contain the URL of a server or the string value ThisServer. Since the database “acme” in this example is on, it simply returns ThisServer as highlighted below. This means that the correct server has been targeted and there is no need for a redirect.

The credentials object contains the username, database and session ID. This object will be used in all subsequent calls (password not required when used).

  1. As the authentication method stated the server is correct, other methods can be called. For example GetCountOf, to Pass the property called credentials and send along the contents ofcredentials that was returned in step 2
  2. The result of the GetCountOf is returned, in this case it is 1234

Example 2: Redirect to different server

In this example, an authentication call to is made trying to log into database “acme”. Here the server responds that the database is located on Subsequent calls are then directed to


  1. The Authenticate method is called with the given credentials
  2. The response from the server contains two properties: path and credentials

The path will either contain the URL of a server or the string value ThisServer. Since the database “acme” in this example is on, the return is “” meaning that all subsequent requests should be directed at

The credentials object contains the username, database and session ID. This object will be required in all subsequent calls to the server for security reasons (password not required when used).

  1. As the authentication method stated that acme is on the server, other methods can be called, for example GetCountOf, to Pass the property called credentials and send along the contents of credentials that was returned in step 2
  2. The result of the GetCountOf is returned, in this case it is 1234

Example 3: Dealing with a database move or credential expiry

The examples in the previous sections demonstrated how to specify which server to communicate with during authentication. There are however two additional situations to consider:

  1. the database has moved to a different server
  2. the credentials object returned will eventually expire

When this happens the next API call will fail with the following error object:

        "message":"Incorrect Checkmate login credentials",
            "message":"Incorrect Checkmate login credentials"

When the errors collection contains an object with name “InvalidUserException”, the authentication process must be repeated. This will indicate what the new server is and provide a new credentials object. If the authentication process returns an error, the user was likely changed, in this case another user will be required for the login.

Working with dates

When exchanging dates as parameters to API methods, you must ensure that they are formatted properly as an ISO 8601 string (format yyyy-MM-dd-HH-mm-ss). In addition, all dates will have to first be converted to UTC in order to ensure time zone information and daylight savings times are accounted for correctly.

Unit of measure

As a general rule, MyGeotab uses the metric system for values such as speed (km/h) and distance (m). For example, if you queried the odometer reading for a vehicle, the value would be returned in meters or if you retrieved the current speed of a vehicle it would be in km/h. It does not matter in which region in the world the vehicle or user of MyGeotab system is located  we always return the values in metric. A simple conversion can be applied to these values should you wish to work in imperial units or other customized units instead.

Please note that MyGeotab also records various other status data (i.e. engine data) from the vehicle and these values can be in various units of measure. The units of measure are not provided by Geotab in all cases. Refer to the applicable SAE standard of the specific code for the associated unit of measure.


All objects in the MyGeotab system are called entities. Entities have an ID property that is used to uniquely identify that object in the database. The ID is an opaque string value that uniquely identifies the entity and no assumption about the format or length of this ID value should be made when comparing or storing the values.


An ID is used to uniquely reference entities in the API. IDs are represented by opaque strings. Generally the contents of the IDs are not significant for the user. Building logic around the value of the string should be avoided — unless it is a system ID (see the examples below).

Example 4

In this example, a vehicle in the system and its ID value will be examined. Here is a partial JSON representation of a device object:

    "id": "b0a46",
    "name": "007 - Aston Martin",
    "serialNumber": "GTA9000003EA",
    "deviceType": "GO6",
    "vehicleIdentificationNumber": "1002"

Note the id property with value “b0a46”. This is the unique identifier for the device (vehicle) with description “007 – Aston Martin”.

To find Trips for this vehicle all of the properties of the device do not have to be passed to the Get method. Instead, only the ID property of the device object is required. Below is an example of a valid parameter object (TripSearch) for passing into Get method. The deviceSearch with the ID property set to the value “b0a46” (as indicated in the example above) is passed.

  "search" : {
    "deviceSearch" : {
      "id" : "b0a46"

Calling the Get method with the parameter defined above will return all trips for the vehicle “007 – Aston Martin”.

Example 5

There are certain IDs that are predefined for system entities. For example the group that has been defined as the root group of all user groups, and called the CompanyGroup, will have an ID of “CompanyGroupId” rather than other characters (such as “b0a46” above). For example:

    "id": "CompanyGroupId",
    "name": "The Company Group",
    "children": [..]

If the system entities do not have any properties then they are specified as strings with their ID’s name.  For example the source “Obd” will be identified as “SourceObdId”.

    "code": "738960445",
    "engineType": {
        "id": "b2715",
    "source": "SourceObdId"

Building block approach

The results of a call to our API will only contain literal values and the identities of contained objects  not the actual fully populated child objects. This provides a predictable system that efficiently serializes objects to JSON and back. Additional lookups of the nested objects will be required to retrieve additional properties of the objects.

For example, an engine status data record has a device property. If 1000 engine status data records are retrieved for a device, the status data’s device property will only contain the ID of the device. An additional retrieval for the devices object will be required to obtain the status data records. This approach has several benefits:

  • Saves bytes over the wire
  • Reduces request time
  • Avoids redundant copies of entities
  • More flexible since the child objects may not always be required

In the example below it can be seen how, by creating a dictionary of devices where the key is the device ID and the value is the device object, devices can be easily “stitched” into the status data records:

var statusDatas = [{
        "id": "a1",
        "device": {
            "id": "b1"
        "data": 0.002,
        "id": "a2",
        "device": {
            "id": "b1"
        "data": 1.05,
var deviceLookup = {
    "b1": {
        "id": "b1",
        "name": "Device 1",

statusDatas[i].device = deviceLookup[statusDatas[i]];

Depending on the process, for some entities like diagnostics, it may be desirable to maintain a local cache from which the status/fault data can be populated. In this case it will be necessary to refresh the cache whenthe cache is missing the required entity making an API call. This will allow the API to get the required entity and add it to the local cache. An example of maintaining a diagnostic cache would occur when consuming a feed of data from the API. An example of this process is included in both the C# and JavaScript DataFeed examples.


A MultiCall is a way to make several API calls against a server with a single HTTP request. This eliminates potentially expensive round trip costs.

Why use a MultiCall?

Making an HTTP request over a network has overhead. This can be in the form of Network overhead, the round trip time to send and receive data over the network and HTTP overhead, the HTTP request and response headers. A MultiCall can be used to reduce amount of overhead in situations where many small requests need to be made to a server.

For example, if we make a request to get the max road speed from a set of points. The request would be constructed in a format similar to:[{"y":<37.61610412597656>,"x":<-121.8139419555664>}]&credentials={"database":"<demo>","userName":"<>","sessionId":"<xxx>"}



Making the assumption that it takes 100 milliseconds for this call round trip (the time from sending request to receiving the response), 40 milliseconds to send the request, 20 ms to process the data on the server and 40 ms for the response to be returned. Google’s SPDY research project white paper states that “typical header sizes of 700-800 bytes is common. Based on this assume a 750 byte cost when making a request. From the example, there would be 80 ms of network overhead and 750 bytes of HTTP overhead, this is accepted as the “cost of doing business” when making a request over a network.

Taking the previous assumptions, what would the overhead be for making 1000 requests for road max speeds? When individual calls are made to the server for 1000 addresses; the base (minimum) HTTP and Network overhead is required for each of these calls. This would result in 80 seconds (80,000 milliseconds) of network overhead and 5.72 MB (750,000 bytes) in headers just going to and from the server. It can be clearly seen that a great deal of overhead can be generated by making small but repeated requests.

By using a MultiCall, the network and HTTP overhead remains at the cost of a single request. This brings the overhead back down to our original 80 milliseconds and 750 bytes. The server processes each request andreturns an Array of results when complete.

The above illustration is an extreme example to demonstrate the benefits of using a MultiCall. A MultiCall can (and should) be used to make short running calls of 2 or more requests more efficient than individual calls.

Basic implementation

Making a MultiCall is very simple, use the method “ExecuteMultiCall” with the parameter “calls” of JSON type Array. Each call should be formatted as an Object with property “method” of type string with the method name as its value and a property “params” of type Object with the method parameters as its properties. The “params” object will also need to contain the user credentials if they are required for the method being called.[{"method":"GetRoadMaxSpeeds","params":{"simplePoints":[{"y":37.61610412597656,"x":-121.8139419555664}],"credentials":{"database":"demo","userName":"","sessionId":"xxx"}}},{"method":"GetRoadMaxSpeeds","params":{"simplePoints":[{"y":38.61610412597656,"x":-122.8139419555664}]}}]



API wrapper support

Both the C# and JavaScript API wrappers supplied (included with the samples) have native support for making multi calls. See the examples below:

JavaScript API multi-call example:

var calls = [
    ["Get", { typeName: "Diagnostic" }],
    ["Get", { typeName: "Source", search: {id: "SourceGeotabGoId"}}],
    ["Get", { typeName: "Controller" }]

api.multiCall(calls, function (results) {
    var diagnostics = results[0];
    var sources = results[1];
    var controllers = results[2];
}, function (errorString) {

C# API multi-call example:

object[] calls = new object[] {
    new object[] { "Get", typeof(Diagnostic), typeof(List<Diagnostic>)},
    new object[] { "Get", typeof(Source), new { search = new SourceSearch { Id = KnownId.SourceGeotabGoId}} typeof(List<Source>)},
    new object[] { "Get", typeof(Controller), typeof(List<Controller>)},

List<object> results = api.MultiCall(calls);

List<Diagnostic> diagnostics = (List<Diagnostic>)results[0];
List<Source> sources = (List<Source>)results[1];
List<Controller> controllers = (List<Controller>)results[2];

MultiCall FAQ

Can I use a search in a multicall?

Yes, it is possible to use a search in a multicall.

When shouldn’t I use a multicall?

If you need to make a few requests that are long running and return a large amount of data. In these cases it may be preferable to make these requests singularly instead of running one request that continues for a very long time before completion. When the connection is held open for a long period of time you become increasingly susceptible to network interference that could terminate the request.

How many request can I put in a multicall?

There is no limit on the number of requests that can be made in a multicall. When making a large number of requests it may be desirable to “chunk” the requests into several requests of a smaller and more manageable size.

What if the call doesn’t return a result? (For example: a set operation)

The index in the array of results will have a null value.

What if an error occurs in one of the MultiCall requests?

In a MultiCall, each request is run on the server in succession, when one fails the error results are returned immediately and unreached calls are not run.

To illustrate, let’s assume an array of calls (api.multicall([call-a, call-b, call-c])) where call-b is formatted incorrectly. On the server this would look similar to:

  call-a, // ran successfully
  call-b, // error occurred, throw and return error
  call-c  // never ran
results = {"error":{...}}

Alternatively, a successful MultiCall would look similar to:

    call-a, // ran successfully
    call-b, // ran successfully
    call-c  // ran successfully
results = [[...], [...], [...]]

Using in JavaScript

GeotabApi object

Geotab provides JavaScript developers with easy to use and consistent access to our API through the GeotabApi object. The GeotabAPI provides authentication handling, asynchronous method calling, error handling and multicall support. A copy of api.js has been included in the JavaScript examples.

Creating a Geotab Api object

When creating the GeotabApi object, prepend a reference to the file api.js before the main JavaScript code:

<script type="text/javascript" src="api.js"></script>
<script type="text/javascript">
    // Custom code goes here

In the main JavaScript code, initialize the GeotabApi object by providing the constructor with a callback function to handle the authentication:

var api = GeotabApi(function (authenticationCallback) {
        // Handling getting credentials. Deals with these cases:
        //      a) No credentials yet (first page load)
        //      b) The credentials have expired (password changed or server moved)
        //      c) "api.forget()" has been called
        // Show the dialog now & set up listener to callback with credentials
        document.getElementById("submit").addEventListener("click", function () {
                server = document.getElementById("server").value,
                userName = document.getElementById("username").value,
                password = document.getElementById("password").value,
                database = document.getElementById("database").value;

                authenticationCallback(server, database, userName, password,
                        function (errorString) {
        }, false);

When the GeotabApi object has been set up, the first call to a method will trigger the callback to get the credentials. Once the credentials have been entered by the user, the authenticationCallback will be called with the entered credentials. Then the original method result will then be retrieved. After this method has been called, the server, database, username, and session are stored in localStorage.

Using the GeotabApi object

The following example demonstrates how to use the GeotabApi object to request the location of a vehicle.

var deviceId = "b93B"; 
// Sample API invocation retrieves all "Device" objects"Get", {
        typeName : "DeviceStatusInfo",
        search : {
                deviceSearch : {
                        id : deviceId
}, function (result) {
        if (result != null && result.length > 0) {
}, function (errorString) {

The Call method arguments

The Call method is used to “Call” any of the APIs that the MyGeotab SDK provides. It takes 4 arguments:




The API method that is being called. For example, “Get” or “GetCountOf”. See the API reference for the full set of methods.


The parameter object that the API method expects. For example:
typeName: “DeviceStatusInfo”,
search {
deviceSearch: {
id: deviceId


The function that will be called back when the API call succeeds. The callback function has a single argument called “result” that will contain any results returned by the API call.


The function that will be called back should the API call fail. The callback function has a single argument that will contain error information.

A note about state

The GeotabApi object is designed to be stateless. The main reason for this is that a call could fail at any point due to session expiry or the database moving. The authenticationCallback will automatically be called when this situation is detected. The application will then prompt (or read from file etc.) for the required credentials. The call that was being attempted will resume when new credentials are received. This also means that there is no concept of being “logged in” or “out” of the server.

Working with JSONP

Creating a JSONP request is similar to creating a HTTP GET request  but with one minor change. An additional parameter that specifies the callback in the requested URL will be required to be passed as follows:

The response will be in the following format with your current version number:


In a JavaScript application a function to handle the JSONP callback will need to be set up.

window.jsonpCallback = function(data) {
    if (data.result) {
    } else {

When the examples are downloaded, the GeotabApi object has an option to use JSONP requests. In this way the examples can be run without placing them on a Web server.

Next steps

Once you have a basic understanding of how api.js and the JavaScript API work and want to learn more, you can take a look at our examples here.

Using in .NET


The .NET SDK tools provide an easy way to integrate MyGeotab into .NET software. All of the communication to Geotab’s services is accomplished over HTTPS with data serialized in JSON format. The .NET library provided will automatically handle the JSON serialization and deserialization into MyGeotab objects.


Including this assembly in the project allows for the interaction with the Geotab API. It is a convenient “wrapper” around Geotab’s HTTP/JSON API to allow developers focus on writing code instead of moving data over the wire. It includes tools to assist authenticating against Geotab’s servers, automatically serializing/deserializing JSON, and providing definitions for Checkmate object classes.

Download the Geotab.Checkmate.ObjectModel.dll and .NET examples from the .NET example ZIP file and add a reference to it from the .NET project.

API class

Step 1: Initialization & authentication

In order to have access to the API class, add the following to the file’s includes section:

using Geotab.Checkmate;
using Geotab.Checkmate.ObjectModel;

An instance of API can now be constructed to be used in the code. For the most basic use case, all the data that is needed is user credentials and a database name:

API api = new API(userName, password, null, databaseName, server);

At this point there has not been any communication with Geotab’s servers. In order to make calls to Geotab’s API, an authentication call must be made:


When the call is made to Geotab’s servers to authenticate, a token is returned for security. For more information regarding how Geotab handles authentication, please review the “Authentication” section inthe Concepts documentation.

Behind the scenes, the Authenticate call makes a JSON-RPC request to Geotab’s “Authenticate” method. The resulting security token and server information are stored in order to make further calls to the API.

Step 2: Making calls

When authenticated, calls are made to the API by invoking the “Call” method of the API class.

The example below illustrates how to make a generic call to get all devices in the system.

List<Device> devices = api.Call<List<Device>>("Get", typeof(Device));

In the example below it is shown how to delete a device using the generic “Remove” method. Notice that it is not required to send all of the device’s information to remove it, the devices id is sufficient:

api.Call<object>("Remove", typeof (Device), new { entity = new Device { Id = “b1a34” }});

The last parameter to this Call method is an anonymous object which contains the parameters for the method (please review the API reference to see which parameters the method expects, and whether the parameters are required or optional). The parameter order is not significant, and it is acceptable to omit optional parameters. Optional parameters will revert to their default values, typically “null” or “false” values.

The API class automatically handles databases that are moved to different servers in the federation and expired tokens (token are typically valid for 2 weeks) by automatically reauthenticating and continuing.

Example code

The following is a simple console app that will output the latitude and longitude of each device in a list of devices:

static void Main(string[] args)
    // Create the API object and authenticate
    API api = new API("", "password", null, "demo", "server");

    // Get all devices
    List<Device> devices = api.Call<List<Device>>("Get", typeof(Device));
    foreach (Device device in devices)
        // Get the Device Status Info which contains the current latitude and longitude for this device
        List<DeviceStatusInfo> results = api.Call<List<DeviceStatusInfo>>("Get", typeof(DeviceStatusInfo), new
            search = new {
                DeviceSearch = new { device.Id }

        if (results.Count <= 0)

        DeviceStatusInfo deviceStatus = results[0];

        // Print the results to the console
        Console.WriteLine(device.SerialNumber + "\\t" + deviceStatus.Latitude + "\\t" + deviceStatus.Longitude);

After entering your credentials into the API constructor, this example will produce results similar to this in your command prompt window.

Next steps

Once you have a basic understanding of how the .NET SDK works, we recommend reviewing the examples that we have created here.

Data Feed

The data feed is the primary method used to synchronize data from the telematics system to another system using the API. The GetFeed method can be polled at intervals to get new and updated data from the system. The feed API works with a token that is passed on every request and sent back with the payload on every response. This allows Geotab to track “up to which point in time” we have already sent the receiver data. It also allows the receiver to stop and seamlessly resume the data feed.

Lightweight incremental poll

The feed API is designed to be lightweight and scalable. There is virtually no cost on Geotab’s side for a poll request that yields no data. For example, a poll request when the round trip has no GPS coordinates will return no payload data. The requests themselves, the amount of processing time taken, and the amount of data returned via the internet are all extremely small.

Here is a small trace showing < 100 bytes for an empty poll request with response time of 19ms. The last request contains a payload with 2 GPS coordinates.

The polling frequency is dictated by the requirements of the integration. It could be as infrequent as once a day or as frequent as every few seconds.

Dealing with volume

In each request the caller can specify the maximum number of data points that can be returned in a request. This allows the caller to have control over the maximum size of the responses. This value can be adjusted down from the default of 50,000 — with fewer data points yielding a faster response time. When the limit is reached, the response will be returned with the payload and a token which can be used to specify the point in time from which the next request should start.

The request-response approach also allows for incremental processing. For example, if there were a large backlog of data, the caller would be able to process the chunks of data at its own rate until the backlog ofdata has been cleared.

The API can be consumed by small and large customers alike. Larger customers can consume tens of millions of records per day via the API.

Searching by date

The data feed was designed to be an efficient means of getting a continuous feed of new data from a given token. When a feed is first started it is possible to provide search criteria with a “from date” argument. This specifies the token that will be used to start the feed. This will guarantee that the feed will start at a point that will include any data that is at or after the “from date” argument, but may also include data timestamped before the “from date” argument. For example when performing a “TripSearch” and setting “IncludeOverlappedTrips” to True.

While “from date” is supported, “to date” is not. The feed is not designed to return data within discrete dates. If you wish to obtain data in a particular date range, then use the standard Get methods associated with the entity search objects. If a version is specified, then the argument “from date” is ignored.

Caching can improve performance

It may be required to populate nested entities of data retrieved via the feed. Entities that are static or semi-static will respond well to caching.

For example, status data and diagnostics are separate entities in the system. Status data references a diagnostic. Status data returned by the feed will only have the ID property of the diagnostic populated. If the diagnostic is required by your process then you must get the diagnostic in a separate API call and populate it in the status data record.

This is a good example of where caching can be implemented to improve efficiency, as diagnostic data rarely changes. A cache of diagnostics can be held in memory, refreshed at some interval of your choosing (24 hours, 12 hours, etc.) and may vary depending on the entity type being cached. Entities that may respond well to caching include Unit of Measure, Diagnostic, Source, Device and User.

Active versus calculated

There are two types of data that can be retrieved using a data feed: active data and calculated data. Active data is data that does not change and is not calculated from any other type of data in the system. This data is generated by the device, sent to the system, and is then added to the database. Active data is rarely updated and will not be invalidated by the system. Calculated data is derived from active data. As new active data arrives, it is processed to calculate Trips and Exceptions. Data processing happens in real time.

Active data feeds (only new data)

  • Log Record
  • Status Data
  • Fault Data
  • DutyStatusLog
  • DVIRLog
  • AnnotationLog
  • ShipmentLog

Calculated data feeds (new and updated data)

  • Trip
  • Exception Event

Invalidated data

As calculated data is processed in real time, the state of the data can change causing it to become invalidated. There are a few reasons why calculated data can become invalid or need to be updated by the system.

  • A trip or exception is in progress
  • The system receives new data that invalidates previous data
  • Manual reprocessing was triggered


Trips are calculated data. As new data arrives for a trip currently in progress, the older data for the trip is dropped from the database. The dropped data is then replaced with the newer, more current trip data. Theupdated trip data will have a different trip ID than the previous record of the trip. Thus the “unique trip ID” cannot be used to match an updated trip to an earlier state.

The unique “key” that is used to associate the earlier “version” of the trip in progress to the updated trip is the pairing of the deviceId and the trip stop date. Most of the time, a trip which is in progress will have its stop date continuously updated until the trip has actually ceased (ignition off). If there is no trip in the trip history that matches the combination of deviceId and trip stop date of the updated trip data, and the updated trip has a stop time of zero, then the historical trip which matches the updated trip data will be replaced with the newer trip data.

Exception events

Like trips, exception events are calculated data. As the system receives updated device data, that data is processed and evaluated against the Rules set up in the system. Exception events that are in progress will be updated by the system and will retain the same unique id. Exception events can be invalidated and dropped from the database when a manual process is triggered. Reprocessed exception events will have a new unique id.

HOS and DVIR feeds

The HOS and DVIR related objects under the “Active data feeds” (DutyStatusLog, DVIRLog, AnnotationLog, ShipmentLog) are likely to be edited on a frequent basis. An example is a “DutyStatusLog” that was created (Add) at the beginning of the day with an “ON” duty status, and then edited (Set) to add the “verifyDateTime” at the end of the day.

 Each time one of these data records is manipulated, it will retain its original unique GUID “Id” but will receive an incremented “version”. This way you can match new feed records to existing data you obtained from an earlier feed request.


Why do I have to poll data, can’t you push it to me?

A push-based approach would require Geotab to connect to another organization and this invariably means firewall traversal is required. To accomplish this, network administrators will need to be involved and will be required to maintain the process. This is very often a cumbersome process and sometimes disallowed due to security risks. Geotab wants to provide a zero configuration solution. The poll-based approach avoidsthese issues because all traffic is initiated from within your network, secured via SSL. No certificates need to be installed, no firewalls configured, and no other onerous security requirements are necessary.

There are definitely advantages and disadvantages to both approaches. However, in our experience, we have found the polling based approach is scalable, solves practical network problems, requires zero configuration, and meets the needs of our customers.

MyGeotab URLs

This guide explains how to format a URL (Uniform Resource Locator) to obtain access to a specific page/feature in MyGeotab. This can be used to link to MyGeotab from an Internet application, sending an email notification, third-party applications and other customized functions.

To create a link to a page, the following URL structure is used:


Note: The portions of the examples noted with < and > (e.g. <serverName>) indicate where the user will enter information specific to their requirements.




The name of the server the database is on. For example,


The name of the database. This is typically the company name used during registration. If there are spaces in the name, they are replaced with underscore characters (_)


The MyGeotab web application page name


Additional arguments to apply to the request. For example, ‘currentSortMode:deviceName’ will sort the devices on the device list page by name. Note: each additional parameter is separated by a comma


Browse to your database using this URL format


Note: If you are not yet logged in, you will be prompted for your credentials.

Standalone pages

Standalone pages are used to get a page without the header and side menu. This is useful when specific functionality is required, for example adding a new vehicle to the system.

To create a link to a page, the following URL structure is used:



Note: If you are not yet logged in, you will be prompted for your credentials.

Passing parameters to a page

Parameters are added at the end of the URL and each is separated by a comma. They work the same for both the normal and standalone page types. It is also important to note when no parameters are requested, the page will load with the default settings. The parameter and its value are always separated by a colon (“:”).


These links will navigate to the map pages showing the live position of a device with id ‘b21’, and with the group ‘b1234’ highlighted.


List of pages and accepted parameters

Page: devices

The list of devices in the system.

Default: list of all devices sorted by name.





Sorts the list of devices in a specific way

byType — sort by device
byName — sort by name


Divides the device list into subheadings, which are children groups of the selected parent

<groupName> — parent group name that the device belongs to



Page: device

Edit an individual device.

Default: no default page, you must have an id parameter.





Goes to a device’s edit page




Page: deviceSerialNo

Add a new device.

Default: add new device page. No parameters required.



Page: map

The map viewer page.

Default: shows the map with your default map settings.





Used to show the live location of a device by its id

<list of deviceIds>


Show a route on the map

<list of deviceIds>


Will highlight all devices in that group on the map display




Page: tripsHistory

The detailed vehicle trip history page.

Default: will request you to select settings from the drop down menus. You can define the settings using the parameters.





Sets the range of dates for the trips

(interval:<value>) — values: ‘Today’, ‘Yesterday’, ‘This Week’, ‘Last Week’, ‘This Month’, ‘Last Month’

(interval:custom,startDate: ‘<date1>’,endDate:‘<date2>’)


Show activity for drivers or devices

Device — list device activity
Driver — list driver activity


Vehicles to list information for

!(<listOfEnitities>) or ‘all’



Page: zones

The zone list page.

Default: list of all zones by name.





The list order

 1 — list alphabetically
-1 — Invert the list


Choose how the sort the list

zoneName — sorts by name
zoneType — sorts by type
zoneGroup — sorts by group



Page: zone

The zone edit page.

Default: No default available. Needs parameters.





Goes to edit page for the selected zone




Page: notifications

The notification list page.

Default: full list of user notifications listed in order of most recent time.





The list order

 1 — list the most recent time first
-1 — invert the list


Selects the sort mode

machineName — sorts by machine


Shows all dismissed messages




Page: users

The user list page.

Default: list of all current users.





The list order

 1 — list alphabetically
-1 — invert the list



Page: user

The user edit page.

Default: goes to add a new user page.





The user’s id. Will link to the edit page for that user




Page: options

The user preferences page.

Default: edit user preferences page, no parameters required.





It is possible to insert username and database credentials into a URL. Note that the user will be required to be logged in to utilize these types of links.

MyGeotab Page Example:


Standalone Page Example:


We do not support passing the password credential through the URL because it is unsafe. The way around this is to use a session Id.

It is also possible to include a session id in the URL. This will not prompt the user to login if the session id is valid.

MyGeotab Page Example:


Standalone Page Example:


Getting the session Id using the API:

Refer to the ‘Concepts’ page, under the section ‘Authentication’. Within that section the instructions explain the process of authenticating a user to obtain their session id.

Security Using the Session Id

By using the sessionId, a valid login is created for that account. Another user will be able to fully access that account as long as the sessionId credential remain valid. If an application is being created where the sessionId could potentially be viewed by another party, it is advised to generate the credentials using an account with access limited only to the necessary data.

Using GO devices in your software

Who is this for?

Geotab offers an option where the GO device hardware can be used without using the MyGeotab fleet management software. The rich telematics data that is captured by Geotab’s hardware can be utilized in a customized software solution. This document covers the necessary steps to set up a customized solution. Note that the same API is used to retrieve the data from Geotab’s hosting solution and is identical to the regular MyGeotab configuration.


Data flows from the GO device to the MyGeotab hosted solution automatically. The first step is to create a database to receive the device’s data (as outlined in Getting Started). Once that is complete, the device can be accessed using the APIs defined below.

Device hierarchy

Different devices can support different features. Device objects are designed to extend from shared objects that have mutual support. In this way, each device object will only have properties that are supported and relevant for its specific type. The image below illustrates how different device types relate to each other and their hierarchy.

API to add vehicles

Geotab has a robust API that allows third-party developers to create their own applications that use data from Geotab hardware. A partner using Geotab hardware with their own software must use the API to add their Geotab devices to the database, as discussed above.

Adding a single device


API api = new API(username, password, null, database);
Device device = Device.FromSerialNumber("GT970000006A");
device.Name = "My First Car";
device.Id = api.Call<Id>("Add", typeof (Device), new { entity = device });

JavaScript API

var newDevice = {
        name: "My First Car",
        serialNumber: "GT970000006A"
};"Add", {
typeName: "Device",
entity: newDevice
function (result) { = result;
function (errorString) {

HTTP request{"serialNumber":"GT970000006A","Name":"My First Car"}&credentials={"database":"Your Database Name","userName":"Your User Name","password":"Your Password"}

The above code samples show a sample call to add a single device to a database using the C# API, JavaScript API and an HTTP request. Please refer to the API documentation for more information.

Adding Multiple Devices

Both the C# and JavaScript examples contain a comprehensive demonstration of how to add multiple devices to a database. This can be used as a starting point for additional development.

API to extract data

The simplest way to extract data efficiently and reliably is to create a data feed. There are special methods for this application — see the Geotab Data Feed documentation. The document contains examples of how to create a data feed in C# and JavaScript.

Enable in-vehicle features

To enable or disable vehicle features, the appropriate properties of the Device/GoDevice object must be set. For example, to enable beeping before adding the device to MyGeotab, the C# example above would be changed to:

API api = new API(username, password, null,  database);
// GoCurve extends from Device and models a GoDevice with beeping features
GoCurve device = (GoCurve)Device.FromSerialNumber("GT970000006A");
device.Name = "My First Car";
device.DisableBuzzer = false;
device.Id = api.Call<Id>("Add", typeof (Device), new { entity = device });

Please note that GO devices use a byte value to track parameter changes. If an in-vehicle feature like a speeding alert was enabled, increment the parameterVersion property by 1.

If a device has already been added to MyGeotab it can have features enabled or disabled by first obtaining the device parameters, changing the desired properties, and then calling the ‘Set’ method instead of ‘Add’.The API documentation has a number of examples on how to Get, change, and Set a device.

GO device logging


GO devices use intelligent patented logging algorithms to decide when to record speed, position, and other engine information. The device is constantly monitoring various inputs, for example: second-by-second GPS data, hundreds of accelerometer readings per second, and engine diagnostic inputs. The device monitors the data and determines the appropriate time to store a value.

Various data loggers exist on the market today that use a simple time- or distancebased logging algorithm. These approaches, though simple, have significant drawbacks:

  • Important high or low values for speed (or other metrics) could be missed.
  • Positions during cornering are missed (producing inaccurate mileage or poor display on map).
  • Increased data costs by logging redundant information (for example, recording data for a vehicle that is not moving or moving in a straight line at a constant speed).

Logging accurately

The main concept behind GO device logging is to produce an accurate representation of the original data by logging the essential points on a graph and discarding redundant points. We sometimes refer to this ascurve-based logging. This is best illustrated by example:

In this graph, the actual trip is represented by the blue curve. The red dots represent a simple time-based sampling where a speed value is recorded at regularly spaced time intervals. Notice how some high points and low points are missed by this approach. Also notice that, even when the speed does not change, the time-based approach continues reading the same value.

The green dots represent a more accurate record of the data by establishing the ideal way to reproduce the data with with the fewest number of data points. This is the basic principle that underpins the intelligent logging of the GO device.

Position and speed

The GO device monitors both position and speed at the same time, using the approach discussed above, to log the data. By doing so, the speed profile can be very accurately reproduced and the location of the device determined. This also means the trip will be logged properly around corners (yielding a very accurate mileage calculation).

Engine diagnostics

The GO device also monitors key engine diagnostic values and applies the approach above to log these values (data such as RPM curve, fuel level and many other parameters) in an optimized manner that allows an accurate reproduction of events without the drawbacks associated with time- or distance-based logging.

Note: The intelligent logging approach means the rate at which the data is logged will vary; we cannot specify a fixed logging rate such as “x times per hour” because the logging rate depends on the driving behaviour of the vehicle. The GO device will log as as many times as required to accurately represent the data being recorded while minimizing redundant data.

Technical details

The methodology used to determine the optimal time to log GPS points is a curve-based algorithm that utilizes the Ramer-Douglas-Peucker (RDP) algorithm. The purpose of the RDP algorithm is to create a simplified curve compared to the original data. This is done by removing trivial and redundant data points, and keeping only the relevant data points within the allowable error limit. The curve-based algorithm is used to determine which of the second-by-second GPS points need to be saved and transmitted to MyGeotab. The curve logging algorithm allows the GO device to keep only the points that are necessary in order to provide an accurate representation of the events logged. Accuracy is dictated by the predetermined allowable curve error values.

When the algorithm runs on the set of data points, it starts with the first and last points in the data set and automatically marks these as to-be-saved. It then considers the points between the first and last points; the data points will be continually divided until a line segment within the allowable error limit is obtained; this point will then be marked as to-be-saved. The algorithm will then run again for any points between the first point and the new point as well as any points between the new point and the last point.

The curve-based algorithm is run first on Latitude vs. Longitude and then on Speed vs. Time. The curve algorithm is run on speed values between the to-be-saved points predetermined by running the curve on position.

Based on the curve reduction method and the chosen allowed error values, the requirement is that the data between two saved GPS points will be acceptably linear in both position and speed.

GPS logging

When the curve algorithm is run on the data is dependent on several factors, which are listed below:

  • The curve buffer becomes full.
  • The actual position of the GO device differed excessively from the predicted position of the GO device.
  • Another event triggered the running of the curve.

Below is a list of parameters which utilize the curve algorithm for data logging.

Fault and status data logging

Curve logging on engine data

Where appropriate engine data is logged using the curve-based algorithm. The following is a list of the engine data now logged using the curve-based logic:

  • Battery Temperature
  • Brake Lining Remaining
  • Brake Temperature
  • Cab Interior Temperature
  • Charge State
  • Coolant Level
  • Coolant Temperature
  • Cruise High Speed Limit
  • Engine Cooling Fan Speed
  • Engine Oil Level
  • Engine Oil Life Remaining
  • Engine Oil Pressure
  • Engine Oil Temperature
  • Engine Speed
  • Fuel Alcohol Composition
  • Fuel Filter Life Remaining
  • Fuel Level
  • Maximum Road Speed Limit
  • Outside Temperature
  • Starter Brush Life Remaining
  • Starter Current
  • Tire Pressure
  • Transmission Oil Level
  • Transmission Oil Temperature
  • Washer Fluid Level

Vehicles will not necessarily return all of the above information; the list is based on all the supported engine protocols.

Total fuel used

Total Fuel Used is generic status data. No matter how fuel information is received from a particular vehicle, be it OBD2, J1708, J1939 or another diagnostic standard, a generic Total Fuel Used record will be saved after ignition off. An additional record, Device Total Idle Fuel Used, which is the fuel used while road speed is 0, is also saved on ignition off. Device Total Fuel Used (Telematics Device Code 2187) and Device Total Idle Fuel Used (Telematics Device Code 2188) are the parameters used to track fuel consumption.

Seat belt and odometer

Seat belt and odometer requests are proprietary on most passenger cars. It is Geotab’s goal to support seat belt and odometer across all the major vehicle manufacturers. If you are unable to obtain seatbelt or odometer requests for your vehicle, please contact Geotab Support. You can query the percentage of seat belt, odometer and other engine based data is supported for different vehicle types via MyAdmin.

Seat belt use is logged on status change: a value of 1 represents the seat belt unbuckled, while a value of 0 represents the seat belt buckled. Odometer is logged both on ignition on and ignition off.

Using third party devices in MyGeotab


This document describes how Geotab provides support for third-party devices in MyGeotab. Third-party devices are defined as any asset tracking device that is not manufactured or sold by Geotab but is used in conjunction with Geotab’s fleet management platform.

Device identification

A serial number will be provided for each device by Geotab. The serial number will be very similar to a standard Geotab GO device serial number. It consists of a 12 digit alphanumeric string and contains two pieces of important information:

a) What type of device this is

b) The unique identifier of the device

For example, a serial number for a custom device will look like this:


where C1 indicates the custom device type and 800-000-0001 is the unique identifier

Device type allocation

The device type in the serial number (for example C1) is specific to each third-party device and will be allocated by Geotab for a particular vendor (i.e. the person or company interested in third-party integration).

MyGeotab user interface

When entering a serial number, the device type will be used to show or hide features in the device editor. The standard set of fields for custom devices include:

  • Device description
  • Device identifier (not the serial number but third-party device identifier, as required)
  • Groups
  • Comments
  • Odometer
  • Engine hours
  • Work Hours
  • Time Zone

Systems integration

Geotab provides various systems (MyAdmin,, etc.) that tie in closely with its line of GO products. By using a standardized serial number scheme as described above, Geotab will be able to provide additional services in the future with regards to third-party devices. For example, recording a successful installation or summarizing to a MyAdmin user how many third-party devices are linked to their account.


Geotab continues to invest in the software and services it provides to resellers and customers. There is a monthly fee charged to host devices on MyGeotab. Geotab will set up a rate plan for the reseller to issue monthly charges.

This fee includes:

  • Map licences
  • Future development and software improvements
  • Support
  • hosting fees
  • Ongoing support for hosting custom devices
  • Nokia posted road speed maps
  • SDK support


The Third-Party Devices API is accessible through HTTPS and JSON.
The following method calls are supported:


ProvisionResult ProvisionDevice (string username, string password, int productId, string server)

This is a provisioning call that adds a device to MyAdmin and generates a Serial Number to be used for referencing the device or viewing it on MyGeotab. Parameter description:

  1. string username — The third party email address to authenticate with.
  1. string password — The third party password to authenticate with.
  1. int productId — Integer code used to specify the type of the device to provision. This code will be provided by Geotab.
  2. server — The name of the server used to process the GPS data. This can be left blank to automatically use the default value of “”. Note that the port number is required.


List<AddGpsResult> AddGps(string username, string password, List<ThirdPartyLogRecord> recordsToAdd)

 This call is used to feed the device data to checkmate. Parameter description:

  1. string username — The third-party email address to authenticate with.
  1. string password — The third-party password to authenticate with.
  2. List of ThirdPartyLogRecord containing the data.

Referencing Geotab.Checkmate.ObjectModel.dll will give access to all namespaces and objects needed to make the calls to the Third-Party Devices API.

Overview of needed namespaces and objects:

  1. Namespace Geotab.Checkmate.Web contains classes through which the remote calls can be made.
  1. WebServerInvoker — The object can be used to make the remote JSON call MyAdminAPI server via an HTTP/HTTPS GET command. A demonstration of its usage is provided in the .NET examples.
  2. Namespace Geotab.Checkmate.ObjectModel contains objects used as parameters and return types for the remote calls. The list of the objects is:

ProvisionResult — Return type for provisioning call

  • string SerialNo — Device serial number generated by MyAdmin
  • bool IsSuccess — Is provisioning call was successful
  • string Error — Reason for provisioning call failure

ThirdPartyLogRecord — Used to describe the device data.

  • string SerialNo — MyAdmin assigned serial number of the device, which will be returned during device provisioning
  • DateTime DateTime — DateTime of the log
  • float Longitude — Longitude component of the GPS coordinates
  • float Latitude — Latitude component of the GPS coordinates
  • bool IsGpsValid — Are the coordinates valid
  • float Speed — Device speed
  • bool IsIgnitionOn — State of the Ignition
  • bool IsAuxiliary1On to IsAuxiliary8On — State of the auxiliary relays


  • bool IsSuccess — Is the sending of the results successful
  • string Error — What was the error during the sending of the data

Please refer to the provided example for the usage of the objects in the SDK .NET examples.

Developing Add-Ins


Add-Ins are used to extend the functionality provided by MyGeotab. An Add-In is just JavaScript, HTML and CSS loaded into the MyGeotab portal and resides directly inside the MyGeotab user interface. This allows third-parties to create a seamless user experience and provide solutions that would otherwise require the user to visit a different website altogether. Click here to find our sample Add-Ins.

Geotab Add-Ins can be of two types:


A custom page Add-In can be thought of as a complete web application inside your Geotab account. A custom page Add-In has access to the MyGeotab API and the current page state. With custom pages you can develop business-aware Add-Ins by combining MyGeotab data with your own APIs.


Custom button Add-Ins can be included to perform different functions.  Additional navigational buttons can be dynamically inserted inside certain areas of the MyGeotab user interface. This allows custom buttonAdd-Ins to provide a simple way for users to reach your custom page Add-In (see Image 1).  Buttons can also be placed on pages to execute functions for automation of routine tasks, such as report generation (see Image 3).

Use cases

Consider a manager who regularly performs similar tasks each day. Their workflow may consist of comparing fleet metrics with local data from your software. By creating a custom page Add-In, you can combine both of these tasks into one easytouse page where all the information is readily available.

Another example is to quickly navigate between different areas of Geotab. A simpleto-use oneclick button Add-In can be made for most pages. The button will guide the user between areas, and can optionally use the page state to automatically fill in URL parameters to run reports with a single click.


The Add-Ins created can either have their source code embedded and stored on Geotab’s servers or can be stored externally using your own hosting provider or your own servers. Any referenced files must be publicly accessible.

Add-In configuration files

Each Add-In created will have one configuration file. The configuration file is a JSON file ( of keys and values which describes the Add-In, who is responsible for it, what source code it contains, and a digital security signature.

Table 1 — Add-In configuration file keys/values





The name of this Add-In



Email address for support related to this Add-In



Array of custom pages and/or buttons (External references)



Custom pages and/or buttons (Embedded code)



Unique MyGeotab Add-In key assigned by Geotab



Digital signature of the Add-In



Which Geotab API version to use


Note: If you do not know your MyGeotab Add-In key, please contact your authorized Geotab reseller for support.

The Add-In configuration file can specify the contents using either the Items, Files property, or a combination of both. It is recommended to use Items and externally referencing the source code to make development and debugging easier. When ready, the code can be embedded directly on Geotab’s servers.

Example Add-In configuration file

The Add-In configuration file below demonstrates how to define a simple Add-In which references an HTML page specified by its URL. Any CSS or JavaScript which is required by the Add-In would be specified in the referenced HTML.

Listing 1 — A simple Add-In configuration JSON file

        "name": "My First Geotab Add-In",
        "supportEmail": "",
        "version": "1.0",        
        "items": [{
                "url": "",
                "path": "ActivityLink",
                "icon": "",
                "menuName": {
                        "en": "English Menu Text",
                        "fr": "French Menu Text"
        "files": { },
        "key": "12345-MYAPIKEY",
        "signature": "12345-MYSIGNATURE"

Test the example above by navigating to Administration → System → System Settings → Add-Ins. Select New Add-In and paste the example in the configuration tab. Be sure to select save then refresh the page.

Each Add-In can create a navigation entry in the left hand side menu. This allows quick and easy access to all of the Add-Ins. The placement of the navigation entry for the Add-In is specified in the configuration file, relative to another built-in navigation entry. In the section below, a navigation entry is placed directly after the Activity entry. A user with English as their interface language will see “English Menu Text” as the label. Note that we show only two properties for brevity.

    "path": "ActivityLink",
    "menuName": {
        "en": "English Menu Text",
        "fr": "French Menu Text"

Image 1 — Modified left hand side menu

The Add-In navigation entry can be placed after any of the following built-in values:

  • GettingStartedLink
  • ActivityLink
  • EngineMaintenanceLink
  • ZoneAndMessagesLink
  • RuleAndGroupsLink
  • AdministrationLink

To place the navigation entry as a sub-menu entry in one of the main entries place a slash (“/”) character after the name. The custom entry will be the first item inside the sub-menu.

For example, by changing ZoneAndMessagesLink/” as the value for the “path” key:

"path": "ZoneAndMessagesLink/",

 This will insert the custom navigation entry as follows:

Navigation entries cannot be set at the third level (sub-sub-menu) and below. If done so by the steps outlined above, the entry will simply appear as a non-formatted bullet point in the menu.

Note: A user may not have access to some entries of the left hand side menu. The custom navigation entry will be shown after the nearest entry which is accessible to them.

Listing 2  Add-In configuration section for submenu

To create a sub-menu, add to the items array a special JSON object that looks nearly identical to the page item — with the exception of the URL property.


To place buttons inside a new sub-menu, use subMenuPath property as illustrated in Listing 3. This sub-menu will be shown only if there are at least two items inside it.

        "name": "My First Geotab Add-In",
        "supportEmail": "",
        "version": "1.0",
        "items": [
                        "path": "ActivityLink",
                        "menuId": "newSubPathLink",
                        "menuName": {
                                "en": "English Menu Text",
                                "fr": "French Menu Text"
                        "path": "newSubPathLink/",
                        "url": "",
                        "menuName": {
                                "en": "English Sub-Menu 2 Text",
                                "fr": "French Sub-Menu 2 Text"
                        "path": "newSubPathLink/",
                        "url": "",
                        "menuName": {
                                "en": "English Sub-Menu 1 Text",
                                "fr": "French Sub-Menu 1 Text"
        "isSigned": false,
        "signature": "12345-MYSIGNATURE"
        "key": "12345-MYAPIKEY"

Hosting an Add-In on Google Drive

Host files on Google Drive by creating a folder to place the html, js and css files for the Add-In. Share this folder with the “Anyone on the internet can find and view” setting. While your browser is on the shared folder, copy the part of the URL after the “folders/”; which in the case of:

would be


this will be referred to as <folder hash>.

Construct the URL as:

General:<folder hash>/subfolder/[0,...n], ex.


and by placing it in a browser address bar verify that your Add-In’s folder can be viewed. Next, construct the URL for your Add-In’s startup page like the example:

Then place the constructed URL into the address bar and load the page. Upon loading the page, the URL will convert into something like:

Use the resulting URL for the Add-In configuration file.

Referencing source items

Each Add-In can define zero or more items as part of its configuration file. An item is a collection of keys and values which represent a page or a button.

Table 2 — Parent menu item

A parent menu item defines a new menu item and where it should reside within the menu hierarchy. It does not have a URL that activates a page and serves only as the container for sub-menu items.





A unique identifier for this menu. This string value of your choice but should be unique. See builtin ones above “GettingStartedLink”, “ActivityLink”, etc.



Specifies where in the menu hierarchy this menu item should reside. It will follow the menuId specified or become a child item if a trailing slash is provided, such as “ActivityLink/”.



An object containing keyvalue pairs for the text that appears on the menu item. The key is the language and the value is the text, for example: {“EN”, “New menu item”}.



A URL to the image (svg, png, jpg, etc.) that is placed in front of the menu item. Note that the current image size is 32×32 but it is recommended that SVG icons are used to allow for scaling.


Table 3 — Menu item





A URL to the HTML page to load when clicking on this menu item.



Specifies where in the menu hierarchy this menu item should reside. It will follow the menuId specified or become a child item if a trailing slash is provided, such as “ActivityLink/”.



An object containing key value pairs for the text that appears on the menu item. The key is the language and the value is the text, for example: {“EN”, “New menu item”}.



A URL to the image (svg, png, jpg, etc.) that is placed in front of the menu item. Note that the current image size is 32×32 but it is recommended that SVG icons are used to allow for scaling.


Table 4 — Button item





Which built-in page to place the button on



A URL to a JavaScript file which is executed when the button is clicked



An object containing key value pairs for the text that appears on the button. The key is the language and the value is the text, for example {“EN”, “New menu item”}



Reference to the image for placing it in the button label


At least one language is required in each item definition. The following language options are currently supported in MyGeotab: English (“en”), French (“fr”), German (“de”), Spanish (“es”) or Japanese (“ja”).

Note: Reference to the image can be an external URL such as:; or a link to the image from the images folder of your Add-In.

When using the items property to include your source code exclusively, you can set the files property an empty object using “{ }” as seen in Listing 1.

Every Add-In has a JavaScript object which is set in your addin.js file. For example, the Add-In class name “myaddin” is provided by the following JavaScript entry point:

geotab.addin.myaddin = function(api, state) {

The name you provide should be unique for each database the Add-In is deployed to and should take care to avoid invalid include characters in the name. Additionally, when referencing Add-Ins hosted externally, the absolute path to the Add-In should not include the following characters anywhere in their URL:

  • “-” The dash symbol
  • “@” The “at” symbol
  • “#” The hash symbol

For example, the following is an invalid absolute URL due to its dashes and will not be loaded correctly by MyGeotab:

Embedding source code

When developing a custom page or button Add-In, you have the option to embed the source code for your project in the JSON configuration file. When using this method, there is no requirement to host your own HTML, CSS or JavaScript files as they will be converted into strings and written inside the configuration file itself.

Listing 3 — Add-In configuration file using embedded source code

        "name": "Example Embedded Add-In",
        "supportEmail": "",
        "version": "1.0",
        "items": [],
        "files": {
                "js": {
                        "customScript1.js": "alert(‘Embedded Add-In’);",
                        "customScript2.js": "var e = 2.718;"
                "css": {
                        "customStyles.css": "#customDiv{color:#ff0;}"
        "key": "12345-MYAPIKEY",
        "signature": "12345-MYSIGNATURE"

Note: Please be aware that some characters may need to use HTML escape characters (HTML ISO-8859-1 Reference) and Character Reference for the overall JSON object to be validated.

By reproducing the previous example, there would be two folders, one named “js” and the other “css”. Inside the folders are two JavaScript files and one CSS stylesheet; respectively.

The user experience of your custom Add-In can be enhanced by including images in the configuration file. This can be performed in two ways; see Listings 4, 5, and 6 below.

Listing 4 — Absolute path to image in HTML

Referencing an external image using an absolute URL in the HTML or CSS.

<img src="" alt="CustomImage" />

Listing 5 — Absolute path to image in CSS

#customImage {
        background: url(‘’) no-repeat;

Listing 6 — Add-In configuration file with Base64 encoded image

The other method is to embed the images along with the rest of the source code in the markup. First the images will need to be encoded using Base64 encoding (, then the references to the image files replaced with the encoded version directly in the HTML or CSS.

        "files": {
                "customPage.html": "<html><head>...</head><body>...</body></html>",
                "css": {
                        "customStyles.css": "#customDiv{background:url(‘images/img.png);}"
                "images": {
                        "img.png": [ "PD94bWdG3sN1M..." ]

Using third-party libraries

Add-Ins can include references to external libraries that have been custom developed or to existing libraries such as jQuery. This is performed in the traditional way by including a <script> tag to the URL of the file.

Listing 7 — Referencing jQuery from an Add-In

<!DOCTYPE html>
    <script src="//"></script>

Keep in mind that the end-user using the Add-In will be viewing your Add-In from a Geotab server. The files referenced must be publicly available on the Internet. Firewalls cannot be configured with a specific IP address for the Geotab server as the address may change in the future.

References to external source files can either be absolute URLs such as the example in Listing 7 or can be relative references to local files as demonstrated in Listing 3.

Listing 8 — Avoiding CSS naming conflicts

When referencing the CSS files, keep in mind that naming conflicts are possible. Geotab’s outer framework defines a number of CSS styles for common HTML tags which the custom Add-In may inherit. When designing HTML tags, it is recommended to prefix the HTML tags with a common name when they are stylized with the CSS.

<div id="myaddin-menu">
  <a href="#" id="myaddin-refreshButton">Refresh</a>
#myaddin-menu {
  position: absolute;
  background-color: #99cc00;
#myaddin-refreshButton {
  text-decoration: none;

Page lifecycle

When designing a custom page Add-In, it is important to understand the JavaScript events that take place on Geotab’s servers. The userdefined JavaScript code must supply an entry point object which will be created with a predefined parameter signature. From these parameters a signedin Geotab API object will be received, along with the page state and a callback synchronization function.

Every page on Geotab’s servers, including custom page Add-Ins, have the following three methods called during their lifecycle:

Table 5 — Add-In lifecycle methods





Called only once when your custom page is first accessed. Use this method to initialize variables required by your Add-In.

function(api, state, callback) {


This method is called after the user interface has loaded or the state of the organization filter is changed. Use this method for initial interactions with the user or elements on the page.

function() {


This method is called when the user is navigating away from your page. Use this method to save any required state.

function() {


Visual diagram

Understanding the workflow and methods called will help you design a responsive custom page Add-In. Keep in mind that your initialize method will only be called once, unless the user explicitly refreshes their web browser. When the user interface is ready, the focus method will be called. Finally, when the user is navigating away from your custom page Add-In, the blur method will be called, completing the Add-In lifecycle.


Image 2 — Add-In lifecycle workflow diagram

Lifecycle implementation

The following code can be used as a starting point for a custom page Add-In. All of the lifecycle methods are defined and the optional focus and blur methods will be called due to the callback method being called in the initialize method.

Use the commented area to define and then assign variables in the scope of the Add-In. Each of the Add-Ins will need to define its own unique namespace with the prefix geotab.addin (note that the namespace is not hyphenated). In the example below the full namespace is geotab.addin.myCustomPage1.

Listing 9 — HTML and JavaScript entry point example

<!DOCTYPE html>
        <title>Custom Page Add-In</title>
                geotab.addin.myCustomPage1 = function(api, state) {
                        // Initialize required Add-In variables
                        // Example:
                        // var element = document.getElementById("myButton");
                        // if (element) {
                        //     element.addEventListener("click", function (event) {
                        //         event.preventDefault();
                        //         alert("Action performed");
                        //     });
                        // }
                        return {
                                initialize: function(api, state, callback) {
                                focus: function() {
                                        // User interface is available
                                blur: function() {
                                        // Save any Add-In state
        <button id="myButton">Do Action</button>

Custom button Add-Ins

Custom button Add-Ins allow you to extend the capabilities of a built-in Geotab page by appending a new button the top menu of the page. When a user clicks the custom button Add-In, the JavaScript method that has been defined will be called. This JavaScript method has access to the event which was generated by the click, the Geotab API under the credentials of the current user and the page state variables.

Button Add-In configuration file

The following example adds a custom button Add-In to the live map page. When clicked, the button will redirect the user to the vehicles page. Use this example as a starting point for creating your own custom buttonAdd-Ins.

The exact position of the custom button Add-In within a built-in page is defined by the developer. For instance, in Image 3, a new button labelled Perform Action is added to the toolbar of the live map page.

Note: This example uses external references to the source code. Similar to custom page Add-Ins, the Files property of the configuration file can be used to embed the source code on the Geotab servers.

Image 3 — Custom button Add-In on live map page

Use cases

The action your custom button Add-In performs is decided by your specific business requirement. The following are example actions that can be implemented:

  • Oneclick navigation between maps and reports
  • Call an API to alert for driver proximity
  • Create a new zone at the current location
  • Automated execution of a sequence of actions

Listing 10 — Custom button Add-In configuration file

Almost any page is available to have a custom button Add-In added to it. Use a web browser’s address bar to find the correct value for the Page property. Geotab pages will have a trailing hash (“#”) symbol followed by the page name. Determine the page name and then set the “page” value of your custom button Add-In configuration file to that value.

        "name": "Custom Button Add-In Example",
        "supportEmail": "",
        "version": "1.0",
        "items": [{
                "page": "map",
                "click": "",
                "buttonName": {
                        "en": "English Button",
                        "fr": "French Button"
        "files": { },
        "key": "12345-MYAPIKEY",
        "signature": "12345-MYSIGNATURE"

JavaScript Button Action

When a custom button Add-In is clicked by a user, it will execute a predefined method from the JavaScript file referenced. This methods provides the button action with access to the generated event, the Geotab APIas the signed-in user, and the page state.

Note: To avoid conflicts with multiple Add-Ins enabled on an account, be certain to create unique namespaces for each Add-In.

Listing 12 — Custom button click method

geotab.customButtons.customExample1 = function(event, api, state) {
        alert("Custom button Add-In clicked!");

The state object is a powerful tool for creating navigational components by changing the current page state. The state object has access to a number of methods as follows:

Table 6 – Geotab page state methods




Return Type


Gets an object the current URL state




Sets the current URL state. The object parameter is a modified state retrieved from getState.




Redirects the user to another page with optional parameters.


state.gotoPage(“map”, {
someParameter1: true,
someParameter2: 5

String, [Object]



Checks whether the current user has the security clearance to view a page by its # (hash) value.


var result =





Gets an array with ids of the selected groups in the organization filter.


var result = state.getGroupFilter();



Note: The second parameter to the gotoPage method is optional and is used for query string parameters.

Complete integration example

Using all the concepts outlined in this document, the following is a complete integration example which creates a custom page Add-In with real-world functionality. In this example, the custom page has JavaScript methods that make requests using the Geotab API to retrieve the current vehicles on your account. The result of the API request is shown on the custom page in a list. Finally, when the user leaves the page, the custom page performs cleanup during the lifecycle methods.

Note: For the purpose of this example, the integrationExample.css and integrationExample.js are empty files.

Source code

Listing 13 — HTML and JavaScript code for integration example

<!DOCTYPE html>
        <title>Custom Integration Example</title>
        <link rel="stylesheet" href="integrationExample.css" />
        <script src="integrationExample.js"></script>
                geotab.addin.integrationExample = function(api, state) {
                        var center = document.getElementById("center"),
                            listCreator = function(entities){
                                    var listElement = document.createElement("UL");
                                    listElement.appendChild(entities.reduce(function(frag, entity){
                                        var element = document.createElement("LI");
                                        element.textContent =;
                                        return frag;
                                    }, document.createDocumentFragment()));
                                    return listElement;
                            goToVehicles = function(event) {
                                var id ="data-id");
                                if (id) {
                                    state.gotoPage("device", {
                                        id: id
                          refreshPage = function() {
                       "Get", {
                                     typeName: "Device"
                                 }, function(result) {
                                     center.addEventListener("click", goToVehicles, false);
                                 }, function(error) {
                            clearOnLeaving = function() {
                                center.removeEventListener("click", goToVehicles, false);
                                center.innerHTML = "";

                        return {
                             initialize: function(api, state, callback) {
                                       .addEventListener("click", function() {
                                      }, false);
                             focus: function(api, state) {
                             blur: function(api, state) {
        <div id="center">
                <button id="vehiclesButton">Go to vehicles page</button>

Listing 14 — Configuration file for integration example

        "name": "Integration Example",
        "supportEmail": "",
        "items": [{
                "version": "1.0",
                "url": "",
                "path": "ActivityLink",
                "menuName": {
                        "en": "English Label",
                        "fr": "French Label"
        "files": { },
        "key": "123456-MYKEY",
        "signature": "12345-MYSIGNATURE"

Troubleshooting and debugging

When developing Add-Ins, the use of Google Chrome and its Developer Tools window is recommended. To open the Chrome Developer Tools on Windows, press CTRL + SHIFT + I; on a Mac, press CMD + OPTION + I.

The contents of console.log(“…”) statements can be examined using the Developer Tools, the timeline of XML HTTP requests can be viewed, and breakpoints to step through the JavaScript source code can be created.

It is also recommended to read Google’s extensive learning resources available on using Chrome Developer Tools to get started debugging or learn about the advanced features they have available.

Drive Add-Ins

Note: Geotab Drive Add-Ins are in preview release and subject to change


The MyGeotab Add-In structure can be applied to the Geotab Drive application as well, providing you the ability to extend the functionality for drivers in an environment with sensors (e.g. geolocation and acceleration) and actuators (e.g. voice alerts and notifications). This environment must also been completely operable in an offline state — so your Add-In must be able to handle having no internet connection, or sleeping in the background of the mobile device.

Please read the Developing Add-Ins guide first before attempting a Geotab Drive Add-In.

All Add-Ins that have been designed to work with MyGeotab will work on the Geotab Drive app as well. Your Add-In will be completely downloaded for all referenced links, images, and scripts upon user login. This way, as the user is authenticated over the internet — they will have your Add-In with them as they travel or disconnect from the network. If your Add-In requires dynamic loading of CSS, images, or JavaScript — these requests will fail if the user does not have a network connection. As such you should either: include all dependencies on creation of the Add-In, explicitly link to them, or provide a fallback if returns False. Geotab Drive Add-Ins will also display differently, on both the dashboard and the menu.


To make an Add-In on the Geotab Drive app, the item in your configuration file must have a path that equals “DriveAppLink/” (including a trailing forward slash). The menuName, url, and version will remain unchanged. For example:

Listing 1 — Geotab Drive “item” configuration

"items": [{
        "version": "1.0",
        "url": "addinFile.html",
        "path": "DriveAppLink/",
        "menuName": {
                "en": "English Label",
                "fr": "French Label"

Note: The array of items also allows you to have one link item in MyGeotab, and another link item to Geotab Drive

API and State Documentation

Inside the Geotab Drive app, we provide the same api and state properties for your initialize method that we do for our normal Add-Ins. In addition to this, we provide you with properties and methods to allow access to mobile device sensors/actuators. See Table 1 below for a list of the properties and methods provided.

Table 1 — Geotab Drive additional properties and methods




Return Type

Returns true if Geotab Drive is running within a native application, and false if just as a HTML5 web application



If, gets the Geotab Drive version from the native application



If, uses the text to speech functionality on the mobile device



If, will add a notification to the top bar of a native operating system

Example:“Fill up your vehicle”, “Low on gas”)

String[Message], String[Title], String[Id],[String[JsonData]],[Boolean[Permanent]]


A navigator object that is similar to HTML5 navigator.geolocation

Example: (position) { }, function (error) { }, { enableHighAccuracy: true })




Get the current vehicle that is being connected to the mobile device




Mobile device is detected as driving with the current vehicle




Mobile device is being powered




Geotab Drive application is running in the background



Mobile device has internet access




Telematics device is communicating to the server




Mobile device has GPS enabled



What’s New

Note: Microsoft .Net users may require updating your dll to access the latest features. Download the latest copy here.

Looking for the old version (5.7.39196)? You can downloaded the old version here and visit the old documentation here.


February (5.7.1602.XXX)

  • TextToSpeechContent has been renamed to GoTalkContent and RelayContent has been renamed to IoxOutputContent
    * .Net users will require a dll update

January (5.7.1601.XXX)

  • New recipient types added that will send even if there is a delay in data. (BeepTenTimesRapidlyAllowDelay, BeepThreeTimesAllowDelay, BeepThreeTimesRapidlyAllowDelay , TextToSpeechAllowDelay)
    * .Net users will require a dll update
  • Access to third party messages via API.
    * .Net users will require a dll update

New Objects

  • IoxAddOn
  • KnownIoxAddOnType
  • IoxAddOnSearch
  • IoxOutputContent
  • GoTalkContent


December (5.7.1512.XXX)

  • Fixed operator overloading for Id object in .Net dll (id1 == id2 is the same as id1.Equals(id2)) – *If you are using dll version 5.7.1508-1511 this will require a dll update.
  • New addin: Trips Streetview added to GitHub

November (5.7.1511.XXX)

  • Added new security clearances for:
  • ViewMarketplacePaidItems:  Allow user to see paid Marketplace items
  • DeviceAdminDeleteUnplugReplace: Access to removing vehicle, unpluging device, and replacing device.

*If you are using dll version 5.7.1508-1510 this will require a dll update.

September (5.7.1509.XXX)

  • New SDK.  Featuring the new SDK Runner, new methods and objects (click here to see the preview items)
  • Code snippets in the reference documentation.  Now you can see working examples of the methods as they are used in the runner.
  • .Net users will require a .DLL update to access the latest features.

New Methods:

  • CreateDatabase
  • DatabaseExists
  • GenerateCaptcha
  • GetVersionInformation

New Objects:

  • AnnotationLog
  • AnnotationLogSearch
  • CaptchaAnswer
  • CaptchaException
  • Color
  • CompanyDetails
  • DVIRLog
  • DVIRLogSearch
  • DiagnosticCategory
  • DistributionList
  • DuplicateException
  • DutyStatusAvailability
  • DutyStatusAvailabilityDuration
  • DutyStatusAvailablitySearch
  • DutyStatusLog
  • DutyStatusLogSearch
  • DutyStatusLogType
  • DutyStatusViolation
  • DutyStatusViolationSearch
  • DutyStatusViolationType
  • EntityWithVersion
  • FuelEconomyUnit
  • FuelEvent
  • FuelTransaction
  • FuelTransactionProvider
  • HosRuleSet
  • IncludeGroups
  • InvalidMyAdminUserException
  • MapView
  • NameEntity
  • NameEntityWithVersion
  • RadioDownloaderSearch
  • Recipient
  • RecipientType
  • RegistrationException
  • Search
  • ShipmentLog
  • ShipmentLogSearch
  • TextMessageContentType
  • Trailer
  • TrailerAttachment
  • TrailerAttachmentSearch
  • TrailerSearch
  • VersionInformation
  • VolumeUnit


  • BingMapStyle
  • EngineType
  • EngineTypeSearch
  • StatusDataRequestContent

August (5.7.1508.XXX)

  • DriverChangeSearch received new search points including: DeviceSearch, DriverSearch, FromDate and ToDate. Checkout the API Reference for more details
  • DistributionList is now supported by the API. Checkout the API Reference for more details. Some related objects are still pending support (Notification, NotificationTemplate, BinaryData)
  • When searching for Zones you can now specify a traversal method of the group tree. You can choose to include just the specified element, just the ancestors, just the descendents, or both ancestors and descendents. See the ZoneSearch object in the API Reference for more details
  • Fix documentation for object properties
  • Added KnownIds: DiagnosticDeviceTotalIdleFuel
  • Added FuelTransaction API (Beta)
  • HOS/DVIR objects supported in API. Key objects are AnnotationLog, DVIRLog, DutyStatusAvailability, DutyStatusLog, DutyStatusViolation, and ShipmentLog. Checkout the API Reference for more details
  • Added Groups property to StatusDataSearch. This allows searching for status data for devices in the supplied groups. This does not return interpolated results
  • Added from/to date search to UserSearch object. Checkout the API Reference for more details
  • API Reference, objects now show properties of from inherited classes. For example GoDevice extends Device and will show properties of GoDevice and Device in the documentation
  • Geotab Announces New DEV Channel for Developers


  • New condition types added – .Net will require dll update


  • Add KnownId for DiagnosticDeviceTotalIdleFuelId – .Net will require dll update


  • Fixed TimeZoneInfo isDailightSavingsSupported always false using .Net API wrapper
  • Units of measure have been converted to use Known Id’s (see forum post)
  • Adding, setting and removing of some entities has been disabled via the API. Exception Event, Trip, Status Data, Fault Data, Log Record with exceptions for adding odometer and engine hours adjustments and dismissing faults
  • Clearer documentation of date and long values in API Reference
  • Data Feed section added to Guides portion of SDK (see document)