Getting Started OPTO Driver

Open Automation Software Tags can be defined to connect directly to OPTO controllers with the built in OPTO Driver Interfaces which support communications over Ethernet. The following steps can be used to setup direct communications with OPTO controllers.

The following steps can be used to setup direct communications with OPTO controllers.

Step 1

OASStart Configure OAS application from the program group Open Automation Software.

Step 2

Select Configure-License and verify that OPTO is one of the available Drivers in the lower left of the form. If you do not OPTO driver update your Open Automation Software to the latest version.

OPTO License

Note: You will need to be running Open Automation Software Version 10.0.0.2 or greater to support direct OPTO communications. You can download the latest version from our Open Automation Software Download page.

Step 3

Select Configure-Drivers.

Configure Drivers

Step 4

Select localhost or the remote service you wish to modify with the Select button to the right of the Network Node list.

Network Node

Note: Optionally select the Live Data Cloud node if you are hosting Siemens data over the Internet with a standard Internet connection.

Step 5

Enter a meaningful Driver Interface Name that you will refer to this physical connection when defining Tags with an OPTO Data Source.

Define the properties for the desired physical connection.

Note: You may need to Set Default Network Adapter for Driver Interfaces of the operating system.

OPTO Driver

Note: Set the Driver to OPTO.

Optionally define a secondary failover controller if the primary controller fails with the property Enable Failover.

If both the primary and secondary controllers are offline the Return to Online settings determines the retry frequency.

View Driver Interface Failover for more information and and video demonstrating communications failover.

Step 6

Select the Add button in the lower part of the form to add the Driver Interface as an available selection when defining Tags in the next step.

Add Driver

Note: If you need to define several Driver Interfaces you can use the CSV Export and CSV Import on the toolbar in the upper right together with Microsoft Excel.

Step 7

Select Configure-Tags.

Configure Tags

Select localhost or the remote service you wish to modify with the Select button to the right of the Network Node list.

Network Node

Note: Optionally select the Live Data Cloud node if you are hosting Modbus data over the Internet with a standard Internet connection.

Step 8

Select to Add a Tag.

Note: You can also add organizational Groups as many levels deep as you prefer and add tags to groups.  To do this first add a Group to the Tags Group at root level, then right click on the Group in the right window to add additional Groups or Tags.

Add Group

Step 9

Change the Data Source Tag property to OPTO.

Step 10

Select the correct Driver Interface from the Driver Interface pull down list.

Driver Interface OPTO

Step 11

Specify the desired Polling Rate for the Tag.
Specify the Table Name and Index or Variable Name to read and write to.
Note: It is most effcient to use Tables for communications as the entire table can be obtained in one call, while each invidual Variable requires an individual call.
Specify the OPTO Data Type and the Tag Data Type.
Getting Started OPTO 5

Step 12

To define multiple tags use the CSV Export and CSV Import on the toolbar in the upper right together with Microsoft Excel.

Note: You can also programmatically define Tags using the free to use OPC Systems component as demonstrated in the Form FormConfigureCSV in the WinForm Example Code application that installs with Open Automation Software in the Program Group Open Automation Software.  This component can be used in any .NET application includes Web Services, Windows Services, WPF Applications, and ASP.NET or .NET MVC Web Applications.

Step 13

Select the Save button on the toolbar at the top.

Getting Started-Tags 19

Step 14

Create a directory on the local C: drive with the name OPCSystemsDemo.

Save the file DemoTags.tags in the directory C:OPCSystemsDemo.

Getting Started-Tags 20

Step 15

Under Configure – Options set the Default Tag Configuration File so when the computer restarts the tag file will automatically be loaded.

Getting Started – .NET Core for iOS and Android

NOTE:  The OASPCL assembly still ships with the OAS Platform installation for legacy support, but we have now made the OASData and OASConfig assemblies compatible with Xamarin projects. More information on how to use these assemblies can be found here:

OASData – real time data access

OASConfig – programmatic platform configuration


Prerequisites:

  • Windows Development for iOS and Android apps
    • Visual Studio 2012 or newer (2017 or 2019 Recommended) for Windows
    • Xamarin Android Player or Android Emulator (if building Android Apps)
    • Separate machine or Virtual Machine with Mac OS X and XCode (if building iOS Apps)*

— or —

  • Mac Development for iOS and Android apps
  • Deployment

*Note: when developing for iOS with Visual Studio for Windows, you will need to have access to a Mac on your network that has XCode installed. Debugging and execution on the iOS Simulator actually runs on the connected Mac and not on the PC hosting Visual Studio.

For more information about Xamarin Requirements for iOS development on Windows see the following: https://developer.xamarin.com/guides/cross-platform/getting_started/requirements/#windows

Step 1 – Install Xamarin Forms or VS for Mac

The instructions below are for Visual Studio 2015. Read more on Installation of Xamarin Forms for all versions of Visual Studio including VS 2017 for Windows.
See the following for Installation of Visual Studio for Mac.

Step 2 – Create a New Visual Studio project

Create a new project in Visual Studio. If Xamarin is installed properly, this will be under
Templates > Visual C# > Cross-Platform.

Select the project type of Blank App (Xamarin.Forms Shared). This will create a single shared application code base, and individual projects for each deployment target, including Android, iOS, Windows Universal Platform, Windows Phone and Windows.

PCL for iOS and Android 446

For this project we’ll only be using the Android and iOS projects, so once the solution is created, remove all other project targets so you’re left with just the shared app code and the projects for the the desired targets.

After clearing out the extra projects, your solution should look like this:

PCL for iOS and Android 447

Step 3 – Add OAS Component References

Add references to the OAS assemblies. These are located in your Open Automation Software installation directory (typically C:\Program Files\Open Automation Software\OAS).

You need to add references to the following files in every individual deployment target project. So in this case, you need to add these references to both the iOS and Android projects.

OASData.dll

OASConfig.dll

These assemblies are the .NET Core Open Automation Software components for reading and writing Tag data and for configuring OAS Platform settings.

Step 4 – Code: add component instances

Update shared source code in the App.cs file. This will house all of the application code and will be shared by both iOS and Android projects to make it easier to maintain code for multiple devices.

First, add in a reference to the OASPCL namespace, along with application-level variables.

using System;
using System.Collections.Generic;
using System.Linq;
using System.Text;
using OASData;
using OASConfig;  
using Xamarin.Forms;
 
namespace XamarinApp1
{
   public class App : Application
   {
       OASConfig opc = new OASConfig();
       OASData opcd = new OASData();
       string server = "10.211.55.3"; // your machine IP
       bool bPumpSet = false;
       bool bPumpVal = false;
 
       Label lblSine = new Label {
           Text = "Loading...",
           HorizontalTextAlignment = TextAlignment.Center
       };
       Label lblPump = new Label {
           Text = "Loading...",
           HorizontalTextAlignment = TextAlignment.Center
       };
       Button btnPump = new Button {
           Text = "Toggle Pump"
       };

The OASConfig component is used to configure OAS Server and tag settings, and is not used in this example, but the OASData component is.

This is used to monitor tags, fire events when values change on the server, and also to update values on the server. These are the local variables used:

  • Server – A string that holds a reference to the IP address of your OAS server where we will be reading and writing data.
    This may be the localhost of the machine with Visual Studio, but the compiled mobile apps may not be running locally, so localhost or 127.0.0.1 may not work.
    This needs to be the IP address on the network for your OAS server.
  • bPumpSet – A boolean flag that determines if we have gotten values from the server for the Pump.Value tag so we know when it’s safe to allow updates.
  • PumpVal – A boolean to hold the current value for the Pump.Value tag.
  • lblSine – A Xamarin Forms label to display the value of the Sine.Value tag
  • lblPump – A Xamarin Forms lable to display the value of the Pump.Value tag
  • btnPump – A Xamarin Forms button used to toggle the value of Pump.Value

Step 5 – Code: handle events

Now we’ll add some code to monitor server tags and handle updates when values change. The AddTag method adds a tag to the list of tags to monitor. You can also use the AddTags method to add more than one at a time.

The ValuesChangedAll event is fired every time the server values have changed for any tag being monitored.  This event will be passed a list of tags, values, data qualities, and timestamps for each update. If values have not changed for some tags, they will not be included in the arrays passed to the event.

protected override void OnStart ()
{
   // set up tags
   opcd.AddTag(string.Format(@"\\{0}\Sine.Value", server));
   opcd.AddTag(string.Format(@"\\{0}\Pump.Value", server));
 
   // set up event handler
   opcd.ValuesChangedAll += Opcd_ValuesChangedAll;
}
 
private void Opcd_ValuesChangedAll(string[] Tags, object[] Values, bool[] Qualities, DateTime[] TimeStamps)
{
   // iterate thru received values and update display
   Device.BeginInvokeOnMainThread(() => {
       int idx = 0;
       foreach (string t in Tags)
       {
           if (t.Contains("Sine.Value") && Values[idx] != null)
           {
               lblSine.Text = Values[idx].ToString();
           }
           if (t.Contains("Pump.Value") && Values[idx] != null)
           {
               bPumpSet = true;
               bPumpVal = (bool)Values[idx];
               lblPump.Text = bPumpVal.ToString();
           }
           idx++;
       }
   });
}

In the event handler, we will iterate through the list of tags and update labels when their respective values have changed.

Note: We must execute UI updates within a Lambda (a C# anonymous function) tied to the Device.BeginInvokeOnMainThread. This hands over the execution to the main UI thread. If this is not done, crashes or unexpected results could occur.

Step 6 – Code: update screen

The last bit of code will be to handle the clicking of a button and triggering an update on the server when that happens.  First we’ll update the App constructor to include the new labels and button in the layout. Then we add a Clicked handler to the button.

public App ()
{
   // The root page of your application
   MainPage = new ContentPage {
       Content = new StackLayout {
       VerticalOptions = LayoutOptions.Center,
           Children = {
               lblSine,
               lblPump,
               btnPump
           }
       }
   };
   btnPump.Clicked += BtnPump_Clicked;
}
 
private void BtnPump_Clicked(object sender, EventArgs e)
{
   // change pump value here
   if (bPumpSet)
   {
   Device.BeginInvokeOnMainThread(() => {
       opcd.SyncWriteTags(new string[] {
           string.Format(@"\\{0}\Pump.Value", server) },
           new object[] { !bPumpVal });
       });
   }
}

We use the SyncWriteTags method to send up a list of tag/value pairs. In this case we’re just sending up the Pump.Value tag and the inverse of the current value to effectively toggle it.

Step 7 – Building and testing for Android

Start by running the Xamarin Android Player. If you do not have this installed, you can download it here. You’ll then need to download and install device images that the Player will use. For this example, we chose the Nexus 7 with Marshmallow build of the Android OS.

PCL for iOS and Android 448

Once you’ve downloaded the device image you can start it up by hitting the Play button. This will run the device emulator. After the device has started, you can then click on the gear icon to get details. The important field is the IP address. We’ll use this to connect Visual Studio for debugging.

PCL for iOS and Android 449

Now, you can go back to Visual Studio, select the Android Project, to be sure we’ll be debugging that one and not the iOS version. Select Debug to ensure we are in Debug and not Release mode. Then go to the set of icons in the toolbar and select Open Android Adb Command Prompt:

PCL for iOS and Android 450

When the command prompt opens, enter the following command:

adb connect 10.71.34.101

Replace the IP above with the IP of your Android device.

PCL for iOS and Android 451

You should see a successful connection. You’re now ready to debug the project.

In the Visual Studio toolbar, make sure your Android Device is selected as the target and then select Start Debugging. The project will build and then be deployed to the device.

PCL for iOS and Android 452

Note: If you get an error related to missing “provisioning profiles”, this is common. To fix it, select the iOS project, then be sure to select the iPhoneSimulator as the target. Then return to the Android project and try again. Even though we were debugging the Android project, the iOS project will compile and throw errors.

Step 8 – Building and testing for iOS

As stated earlier, to build and test an iOS app, you must be connected to a Mac on your network. This Mac must have XCode installed along with the Xamarin Mac Agent. This allows Visual Studio to connect to the Mac and use its Simulator for debugging.

The simplest way to get the Xamarin Mac Agent on your test machine is to install Xamarin Studio for the Mac found at http://www.xamarin.com/download.

Once you have your Mac configured and accessible on the network, return to Visual Studio to connect by selecting Xamarin Mac Agent from the toolbar:

PCL for iOS and Android 453

Locate your Mac in the list and click Connect. If it is not on the list, click Add Mac… to enter connection details manually.

PCL for iOS and Android 454

Once connected, the toolbar icon will change and the link icon will appear in the Xamarin Mac Agent dialog:

PCL for iOS and Android 455

You can now select the iOS project and target the iPhoneSimulator, choosing the model you want to test. In this case we’ve chosen the iPhone 6s. The models and iOS versions available to you will depend on the version of XCode and Simulator installed on your Mac.

PCL for iOS and Android 456

Now select Start Debugging and the app will compile, deploy to the simulator and start. Switch over to your Mac and you should see it running.

As you can see, the labels and button are similar to those on the Android version, but particular to the iOS app. This allows you to develop an app that is familiar to each target platform user while remaining on a single code base.

PCL for iOS and Android 457

Resources

For more details on how to use the OPCSystemsComponent or the OPCSystemsData components, you can refer to the Programmatic Interface section of our online help. The PCL versions of these components have the same interface as the standard .NET components, so all code examples will function in the same way.

Xamarin Tools and Support
https://www.xamarin.com

Xamarin Android Player
https://www.xamarin.com/android-player

Additional Demo Applications

OAS Tanks HMI for iOS and Android

PCL-for-iOS-and-Android-458_1
PCL-for-iOS-and-Android-458_2
PCL-for-iOS-and-Android-458_3

Getting Started – Tags

Tags are used to define data source communications, alarm limits, and other real-time signal properties like Time On and Counts for keeping track how long a point has been on and how many times it has transitioned in a given period. Tags are common data sources to all clients. Data Sources can be setup to communicate with Modbus, Allen Bradley, Siemens controllers, MQTT, and OPC Servers.

To use data directly from a Visual Studio application use the default data source of Value as a fixed value that can be changed using the OPC Controls Data component. Tags can also be used to setup Calculations from other local and remote Tags.

The following section is how to manually add and define Tags using the Configure OAS application. Tags can also be added and modified using the CSV Import and Export selections using the Configure-Tags application to use Excel or other third party Comma Separated Variable editor.

To learn how to programmatically add or modify Tags from your own Visual Studio application refer to the following article on how to add and define multiple tags with one method:

OAS System Config – Get and Set Tag Properties

For a complete list of all Tag properties refer to the OAS Configuration – Tags section in this help file./sdk/articles/oasconfig04.html

Please view the Getting Started with Open Automation Software Video to familiarize yourself with installation, setting up Tags, selecting Data Sources and Destinations, and implementing Networking and Security.


Step 1

OAS


Start Configure OAS application from the program group Open Automation Software.


Step 2

Select Configure-Tags.

Configure Tags

Step 3

Select the Local OAS Service by selecting the Select button.

Network Node

Note: The Configure application can be used to connect to remote systems using the network node name or IP address of the remote node the OAS Service is running on.  Simply enter the IP Address or network node name of the remote OAS Service you wish to connect to and click on the Select key.

Note: When selecting a service if you receive a warning dialog that the service cannot be retrieved make sure the OAS Service, OAS Data Service, and OAS Database Service are started as described in Start Service.

Cannot Access OAS

Step 4

If you already have the default Demo Tags loaded you can right in the list of tags to the right to Delete All Tags.

Delete All

Click on the Add Tag button located at the top of the Tag browser.

Add Tag

Note
You can also add organizational Groups as many levels deep as you prefer and add tags to groups.  To do this first add a Group to the root level, then right click on the Group in the right window to add additional Groups or Tags.

Add Group

Step 5

Enter the Tag name Ramp in the Add Tag dialog box.

Add Tag To Root

Step 6

Repeat Steps 4 and 5 with Tag name Sine.


Step 7

Repeat Steps 4 and 5 with Tag name Random.


Step 8

Select Tag Ramp in the right Tag window.

Ramp

All Tag properties will appear in the lower window.

Tag Properties

Step 9

For the Value Parameter set the Data Source to OPC Item.

Data Source

Step 10

Use the OPC Browse button at the right of the OPC Item to browse OPC Servers.

OPC Item Browse

Step 11

Expand Local to expand EEI.OPCSimulator and select SimDevice.

Sim Device Select

Step 12

Select Ramp from the list of OPC Items and select OK to enter the OPC Item EEI.OPCSimulator\SimDevice.Ramp.


Step 13

If you plan to use trending on this point enable the Trend Point option in the upper right of the Tag Properties window.

Trend Point

Step 14

Set the Description field to Ramp.


Step 15

Select the High High Parameter and set the Value field to 80 and enable the High High alarm.


Step 16

Select the High Parameter and set the Value field to 60 and enable the High alarm.


Step 17

Select the Low Parameter and set the Value field to 40 and enable the Low alarm.


Step 18

Select the Low Low Parameter and set the Value field to 20 and enable the Low Low alarm.


Step 19

Select the Apply Changes button in the lower right corner.

Apply Changes

Step 20

Select Tag Random and the Value Parameter.

Random

Repeat Steps 8 through 14 and Step 19 substituting Ramp for Random as Tag name and OPC Item name.

EEI.OPCSimulator\SimDevice.Random.


Step 21

Select Tag Sine and the Value Parameter.

Sine

Repeat Steps 9 through 19 substituting Ramp for Sine as Tag name and OPC Item name.  Use 0.9 for High High Value, 0.8 for High Value, 0.2 for Low Value, and 0.1 for Low Low Value.

EEI.OPCSimulator\SimDevice.Sine.


Step 22

Select the Save button on the toolbar at the top.

Save

Step 23

Create a directory on the local C:\ drive with the name OASDemo.

Save the file DemoTags.tags in the directory C:\OASDemo.

Save Tags

Step 24

Under Configure – Options set the Default Tag Configuration File so when the computer restarts the tag file will automatically be loaded.

Getting Started Azure IoT Data Hub

View the following video for a complete demonstration of how to send live data to Azure IoT Data Hub.

  • 0:00 – Introduction
  • 0:17 – Create an IoT Hub
  • 0:47 – Step 1 Azure Portal
  • 0:55 – Step 2 Create a Resource
  • 1:25 – Step 3 Project Details
  • 1:31 – Step 4 Resource Group
  • 1:45 – Step 5 IoT Hub Name
  • 1:54 – Step 6 Review Create
  • 2:03 – Step 7 Deployment is Underway
  • 2:21 – Step 8 Overview
  • 3:18 – Step 9 Shared Access Policies
  • 3:25 – Create an IoT Driver
  • 4:25 – Publish Tags
  • 6:15 – Monitor Values with VS Code
  • 6:38 – Conclusion

Create an IoT Hub

You need to create an IoT Hub for your device to connect to. The following steps show you how to complete this task using the Azure portal:

Step 1

Sign in to the Azure portal.

Step 2

From the left menu, click Create a resource, then click Internet of Things, and then click IoT Hub.

Step 3

On the Basic tab, enter your Project Details.

Step 4

In Resource Group, create a new resource group, or select an existing one. For more information, see Using resource groups to manage your Azure resources.

Step 5

In the IoT Hub Name field, enter a name for your hub. If the Name is valid and available, a green check mark appears in the Name box.

Step 6

When you have finished entering your IoT hub configuration options, click Review + Create at the bottom of the page.  On the next page, review your details and then click Create.

Step 7

A page will appear that says: Your deployment is underway.

It can take a few minutes for Azure to create your IoT hub. Be patient.

When it is done you will see a page that says:  Your deployment is complete.  Click the Go to resource button.

Step 8

The page you now see gives you an Overview of your new IoT Hub. On the top right side of the page, you will see the Hostname for your hub.  Copy this somewhere because you will need it later on in the tutorial to set up your OAS driver.

Step 9

Next click Shared access policies from the left menu.  In the pane that appears to the right, click iothubowner.

In the panel that appears to the right, select the Copy to clipboard icon next to Connection string – primary key.  Save this as well, you will need it later.

You have now created your IoT hub and you have the hostname and connection string you need to complete the rest of this tutorial.

Create an IoT Driver

Step 1

Open Configure UDI.

Step 2

Select Configure >> Drivers from the top menu.

Step 3

Select your Network Node, either local or remote.

Step 4

Enter the Driver Interface Name you wish to use.

Step 5

Select Azure IoT from the Driver combo box.

Step 6

Enter the Azure IoT Device ID you want to use.

Step 7

Enter the Connection String from Step 9 of the previous section into the Azure IoT Connection field.

Step 8

Enter the hostname from Step 8 of the previous section into the Azure IoT Hub URL field.

Step 9

To enable data buffering when communication failure occurs check Enable Store and Forward. Values will be stored in the directory specified under Configure >> Options >> Store and Forward.

Step 10

Select the preferred Azure IoT Transport. Typically it is AMQP.

Optionally define a secondary failover IoT Hub URL if the primary server fails with the property Enable Failover.

If both the primary and secondary servers are offline the Return to Online settings determines the retry frequency.

View Driver Interface Failover for more information and and video demonstrating communications failover.

Step 11

Click Add Driver on the top left.

 

Publish Live Data to your Azure IoT Hub.

There are 2 ways to publish data from OAS to Azure IoT Hub.  Both require Tags to be setup first for the data sources you want to transfer.

Option 1 – Publish Selected Tags to your Azure IoT Hub.

View the following video for a complete demonstration of how to publish data to Azure IoT Data Hub.

  • 00:00 – Introduction
  • 00:23 – Set up Tags in OAS
  • 00:41 – Configure Azure IoT
  • 01:53 – Publish Selected Tags
  • 05:31 – Visual Studio Code
  • 08:00 – Step by step instructions
  • 08:12 – Bulk Publish to AWS IOT
  • 09:21 – Step by step instructions / Publish Data to AWS IOT Gateway
  • 09:33 – Bulk Publish to mqtt broker
  • 10:29 – MQTT Explorer
  • 11:20 – Step by step instructions/ Getting Started MQTT
  • 11:34 – Save button of the OAS Configuration tool

Step 1

Enable Publish Selected Tags at the bottom of the Driver configuration.

Step 2

Select to publish data continuously at a specified interval, based on event, or at a specific time of day.

IoT Publish Type

If Event Driven browse for a local or remote OAS tag that will trigger the publish.  Select a Boolean tag that will change state from false to true, true to false, or both.  Or choose an Integer tag that trigger a publish anytime the value changes other than 0.

IoT Publish by Event

Step 3

Enable Publish Latest Value Only to send only the latest value of each tag when published or disable to send all value changes since the last time a publish occurred.

Enabled Include All Tags Each Publish to send at least the latest value of each tag when published or disable to only send the tags that have changed since the last publish.

Enable Publish All Tags As One Topic to publish all tag values as one topic or disable to send each tag as its own topic.

IoT Publish Options

See examples in Step 6 below for each selectable option.

Step 4

Specify the Publish Topic Id if choosing to Publish All Tags As One Topic.

Specify the Tag Id, Value Id, an optional Quality Id, and Timestamp Id for each tag value that is sent.

IoT Publish Ids

When including the Timestamp Id also specify the timestamp format, use Custom to specify your own date and time format.

Step 5

Specify local and remote OAS tag variables to include in each publish and specify the Id.  Value is the current value from the data source or you can select any of the over 600 tag variables of each tag to publish.

IoT Publish Tags

Optionally use CSV Export and CSV Import buttons to set up additional tags to publish using Microsoft Excel.

When selecting remote tags use Basic Networking syntax or Live Data Cloud syntax in the tag path.

Step 6

Select Apply Changes to begin publishing to Azure IoT Hub.  Select Save to save the new driver configuration within the tag file.

Examples:

Examples of publishing every 2 seconds with each tag value changing every second:

IoT Publish Options

{

  “deviceId”: “OASIOT”,
  “topic”: “oas_tags”,
  “values”: [
    {
      “id”: “Ramp”,
      “value”: 39,
      “quality”: true,
      “timestamp”: “2022-03-21T08:55:39.000Z”
    },
    {
      “id”: “Sine”,
      “value”: 0.8090169943749475,
      “quality”: true,
      “timestamp”: “2022-03-21T08:55:39.000Z”
    },
    {
      “id”: “Random”,
      “value”: 10,
      “quality”: true,
      “timestamp”: “2022-03-21T08:55:39.000Z”
    }
  ]
}
 
IoT Publish All Value Chagnes

{

  “deviceId”: “OASIOT”,
  “topic”: “oas_tags”,
  “values”: [
    {
      “id”: “Ramp”,
      “value”: 16,
      “quality”: true,
      “timestamp”: “2022-03-21T09:03:36.000Z”
    },
    {
      “id”: “Sine”,
      “value”: 0.587785252292473,
      “quality”: true,
      “timestamp”: “2022-03-21T09:03:36.000Z”
    },
    {
      “id”: “Random”,
      “value”: 96,
      “quality”: true,
      “timestamp”: “2022-03-21T09:03:36.000Z”
    },
    {
      “id”: “Ramp”,
      “value”: 17,
      “quality”: true,
      “timestamp”: “2022-03-21T09:03:37.000Z”
    },
    {
      “id”: “Sine”,
      “value”: 0.6691306063588583,
      “quality”: true,
      “timestamp”: “2022-03-21T09:03:37.000Z”
    },
    {
      “id”: “Random”,
      “value”: 26,
      “quality”: true,
      “timestamp”: “2022-03-21T09:03:37.000Z”
    }
  ]
}
 
IoT Publish Tag Id Topics

{

  “deviceId”: “OASIOT”,
  “id”: “Ramp”,
  “value”: 35,
  “quality”: true,
  “timestamp”: “2022-03-21T09:07:15.000Z”
}
{
  “deviceId”: “OASIOT”,
  “id”: “Sine”,
  “value”: -1,
  “quality”: true,
  “timestamp”: “2022-03-21T09:07:15.000Z”
}
{
  “deviceId”: “OASIOT”,
  “id”: “Random”,
  “value”: 83,
  “quality”: true,
  “timestamp”: “2022-03-21T09:07:15.000Z”
}
 

Option 2 – Use Data Route to Send Data to Azure IoT Hub

Step 1

Select Configure >> Tags from the top menu.

Step 2

Select your Network Node, either local or remote.

Step 2

From the demo tags select the Ramp Tag.

Step 3

Select the Target tab.

Step 4

Enable Write to target.

Step 5

Select the Azure IoT in the Target Type dropdown.

Step 6

Select the Driver interface you created.

Step 7

Apply the Changes and you should now be writing to your IoT Hub.

Step 8

The message is formatted as follows.

{“deviceId”:”myFirstDevice”,”TagName”:”Ramp”,”Value”:66,”DataType”:”DoubleFloat”,”Quality”:true,”TimeStamp”:”2016-04-11T14:38:53.7125255″}

.

Getting Started – WPF HMI Dashboard

  • A ready to go template with built in trending and alarming.
  • Template for developing new windows.
  • Designed to run on multiple PC’s that have different screen resolutions.
  • Provides 10 user customizable desktop displays based on user login.
  • User selections are persisted across all PC terminals.
  • Demonstrates the use of Open Automation Software Custom Objects.
  • Demonstrates how to theme an application.
  • Demonstrates the use and development of gadgets.
  • Demonstrates the use of styles in WPF.
  • A learning tool for developing your own WPF applications.
  • A Window for displaying Reports
  • A Window for displaying XPS documents
  • To download the HMI Dashboard Project go to Download Source Code Examples.
  • Once you have unzipped it you can open it with Visual Studio or Expression Blend.

Getting Started – Trend and Alarm Dashboard

You can view Trends and Alarms Dashboard video to review the steps of using this application.

  • 0:00 – Introduction
  • 0:06 – what’s Trend and Alarm Historian Application
  • 0:30 – Pens Groups
  • 0:41 – Trend Windows
  • 0:51 – Include Pens to Trend Window
  • 1:13 – Pens Properties
  • 1:27 – Trend Type
  • 1:34 – Time Frame
  • 2:04 – Stack Chart Mode
  • 2:28 – View
  • 2:52 – Trend Window – Workspace
  • 3:09 – Pens Group
  • 3:16 – Add Pen Group
  • 4:08 – Duplicate Pen Group
  • 4:31 – How to use the Pens
  • 4:39 – Create a new Window without pens
  • 5:34 – Alarms Panel
  • 5:41 – Activate Alarms Windows
  • 6:24 – Customize Alarm Window
  • 6:55 – Modifying Attributes
  • 8:21 – Docking Panels
  • 8:33 – More Questions – Contact Us
  • 9:05 – Training Page – more videos

Menu

Trend and Alarm Menu 482

  • File-New: Clears all trend, pen groups, and alarm windows and starts with a blank configuration.
  • File-Open: Opens an existing configuration previously saved.
  • File-Save: Saves the current configuration with the existing file name.  This will save the list of Trend, Pen Groups, and Alarm Windows and the current list of Windows in the View Window.
  • File-Save As: Saves the current configuration and with a desired file name.
  • File-Exit: Exit the application.

Trend Navigator Bar

Trend Navigator Bar 483

Trend Navigator Bar 484

The Trend Navigator Bar is used to add, modify, and delete Trend Windows that can be selected to be added to the current view configuration.

To view the list of Trends select the Trends button at the bottom of the Navigator Bar.

Add Trend:

Add ReportSelect the Add button to add a Trend Window to the configuration. This will display the Trend Window setup form.

You can define a list of pens to be used with the trend on startup or use the Pen Groups feature and leave the list of Pens blank.

Networking:

If you will be deploying the Trends and Alarms Dashboard configuration to remote PCs or using the application on a different PC than where the OAS Engine resides implement either Basic Networking syntax or Live Data Cloud Networking syntax by entering the IP Address or Network Node in the Network Node field and click Select or optionally select the Live Data Cloud node where the tags are hosted.

Local Tag

myGroup.myTag.Value

Basic Networking

\\192.168.0.1\myGroup.myTag.Value

Live Data Cloud Networking from local OAS Engine

RemoteSCADAHosting.myLiveDataCloudNode.myGroup.myTag.Value

Live Data Cloud Networking though remote OAS Engine

\\192.168.0.1\RemoteSCADAHosting.myLiveDataCloudNode.myGroup.myTag.Value

Trend Navigator Bar 485

Enter the desired Trend Window Name that will identify the Trend Window in the configuration. You must use a unique name that does not already exist.

Select OK to accept the changes or Cancel to abort the recent changes to the window.

Make sure to select File-Save if you add a Trend Window.

Edit Trend:

Edit Trend 486

Select an existing Trend Window from the Trend List and then Modify button to modify the Trend Window. This will display the Trend Window setup form.

Remove Trend:

Remove Trend 487

Select one or more existing Trend Windows from the Trend List and then the Remove button to remove the Trend Windows from the configuration.

Make sure to select File-Save if you remove a Trend Window.

Activate Trend Window:

Activate Trend 488

Select a Trend Window from the Trend List and then the Activate Trend Window button or simply drag the Trend Window name into the main application to add the Trend Window to the view screen. You can add the same Trend Window more than once if you desire as you can make on-line modifications.

Once the Trend Window is activated the window can be left as free floating to any size or location or it can be docked within the main docking area.

Trend Navigator Bar 489

Select File-Save after the Trend Window is docked or placed into the location you would like it to be.

Pens Navigator Bar

Pens Navigator Bar 490

Pens Navigator Bar 491

The Pens Navigator Bar is used to add, modify, and delete Pen Groups that can define a list of pens to add to an existing Trend Window that is activated.

To view the list of Pen Groups select the Pens button at the bottom of the Navigator Bar or select Edit-Pens.

Add Pens:

Add Report

Select the Add button to add a Pen Group to the configuration. This will display the Pens setup form.

Pens Navigator Bar 492

Enter the desired Pen Group Name that will identify the list of Pens in the configuration. You must use a unique name that does not already exist.

Select OK to accept the changes or Cancel to abort the recent changes to the Pen Group.

Make sure to select File-Save if you add a Pen Group.

Edit Pens:

Edit Trend 486

Select an existing Pen Group from the Pens List and then Edit button to modify the Pen Group.  This will display the Pens setup form.

You can use the Edit function to also clone an existing Pen Group to a new Pen Group simply by specifying a Pen Group name in the pens properties dialog.

Select OK to accept the changes or Cancel to abort the recent changes to the Pen Group.

Make sure to select File-Save if you modify the Pen Group.

Remove Pens:

Remove Trend 487

Select an existing Group from the Pens List and then the Remove button to remove the Pen Group from the configuration.

Make sure to select File-Save if you delete a Pen Group.

Activate Pens:

Activate Trend 488

Select an existing Pen Group from the Pens List and then drag the pen name to one of the trend windows that are currently activated.

Pens Navigator Bar 493

Select File-Save after the Pens have been activated to a trend window.

Alarm Navigator Bar

Alarm Navigation 195

Alarm Navigator Bar 494

The Alarm Navigator Bar is used to add, modify, and delete Alarm Windows that can be selected to be added to the current view configuration.

To view the list of Alarms select the Alarms button at the bottom of the Navigator Bar or select Edit-Alarms.

Add Alarm:

Add Report

Select the Add button to add an Alarm Window to the configuration. This will display the Alarm Window setup form.

Add Alarm 495

Networking:

If you will be deploying the Trends and Alarms Dashboard configuration to remote PCs or using the application on a different PC than where the OAS Engine resides use the Networking tag to select all remote nodes where the alarms will be hosted from.

Enter the desired Alarm Window Name that will identify the Alarm Window in the configuration. You must use a unique name that does not already exist.

Select OK to accept the changes or Cancel to abort the recent changes to the window.

Make sure to select File-Save if you add an Alarm Window.

Edit Alarm:

Edit Trend 486

Select an existing Alarm Window from the Alarm List and then Edit button to modify the Alarm Window. This will display the Alarm Window setup form.

You can use the Edit function to also clone an existing alarm window to a new alarm window simply by specifying a new window name in the alarm properties dialog.

Select OK to accept the changes or Cancel to abort the recent changes to the window.

Make sure to select File-Save if you modify the Alarm Window.

Remove Alarm:

Remove Trend 487

Select an existing Alarm Window from the Alarm List and then the Remove button to remove the Alarm Window from the configuration.

Make sure to select File-Save if you delete an Alarm Window.

Activate Alarm Window:

Activate Trend 488

Select an existing Alarm Window from the Alarm List and then the Activate button to add the Alarm Window to the view screen. You can add the same Alarm Window more than once if you desire as you can make on-line modifications.

Once the Trend Window is activated the window can be left as free floating to any size or location or it can be docked within the main docking area.

Add Alarm 496

Select File-Save after the Alarm Window is docked or placed into the location you would like it to be.

Getting Started – Smart Client Click Once Deployment

The Example application installed with Open Automation Software is a Smart Client compatible application demonstrating remote connectivity to any Open Automation Software Service.  The application includes OPC Controls.NET, OAS Trend .NET, OAS Alarm .NET, and the OAS Configuration component.

When building your own Smart Client application make sure to include either the Network Node name or IP Address of the OAS Services you wish to connect to.  This would include the OPC Controls Tag properties, the OPC Trend pen Tag names, the OPC Alarm window network nodes, and any routines using the Open Automation Software programmatic interface.

Open Automation Software uses TCP port number 58724, so be sure to add your applications you deploy to any firewalls on your system with this TCP port number as an exception.  The TCP port number is adjustable in both the service and as the WCFPortNumber property in each .NET dll.

To deploy applications with Visual Studio 2005 with the .NET Framework 2.0 is extremely simple.

Step 1

Make sure IIS is installed and running on the system you wish to deploy to.

Step 2

In Visual Studio 2005 select the Properties of the project you wish to deploy.

Next select the Publish tab to view the Click Once deployment section.

Smart Client Click Once Deployment 456

Step 3

Set the Publish Location to the local or remote system that is running IIS.

Step 4

Set the initial Publish Version and either leave the automatic increment or disable the feature and set it manually each time you want to make an update to the application.

Step 5

Select the Publish Wizard button to begin the steps of deploying the application.

Smart Client Click Once Deployment 457

Step 6

Determine if the application will be installed remotely to run on each system even if the server is not reachable or if the application will only be available with the server is online.

Smart Client Click Once Deployment 458

Step 7

Confirm that the deployment virtual directory is correct and select Finish.

Smart Client Click Once Deployment 459

Step 8

Open port 58724 on all systems that will be communicating together that have a firewall enabled.

On each OAS Service system that you wish to connect to and each remote system you will be running the application from add TCP port number 58724 if a firewall is enabled. This port number is adjustable in the service and in all .NET dlls.

For Windows XP SP2 Select Control Panel-Windows Firewall.

Select the Add Port button.

Enter a Name and the Port Number 58724.

Smart Client Click Once Deployment 460

Use the Change scope button to limit the IP range to the systems that will be communicating together.

Smart Client Click Once Deployment 461

Step 9

From any remote client system simply open url of the deployment server publish page using a web browser and select the Install button.

Smart Client Click Once Deployment 462

With Smart Client deployment you can now easily deploy updates to one location and make updates just to the one deployment server and all remote users automatically receive the updates on the next time they run the system.

When the application is installed for offline/online deployment each time it runs it connects to the deployment server to see if there is a newer version available.  The user is prompted to install the update or ignore and continue to run the application.

Getting Started – Networking

Networking with Open Automation Software is so fully integrated and easy to use its unique ability to move data in different ways can easily be overlooked.  There are not a lot of instructions listed here as networking features are very intuitive simple to implement.

The Open Automation Software support remote client and service communications provided the license has networking enabled.  Go to Configure-License of the OAS Configure application and verify you have Unlimited Client Applications listed there.

There are 4 types of basic networking the Open Automation Software supports.  All networking features are included at no cost provide the data server has OAS Networking enabled in its license.  Live Data Cloud servers and Network Forwarding nodes do not require a license of OAS, only at the data source server.

Basic Networking is used when the data source services have fixed IP addresses and can be accessed directly from each client application.

Live Data Cloud Networking is used when the data source services do not have a fixed IP address.  An example would be a laptop or server PC that has a standard Internet connection and you want to access its data over the Internet.

Network Forwarding is used in corporate networks where you need to redirect / bounce network communications through one or more servers to reach the data source from client applications.  Most commonly to connect industrial networks together with business networks.

One Way Networking is used to transfer data through networks that have communication diodes that only allow one direction of communications.  Most commonly used by our nuclear power customers.

Each networking feature can be used on its own or any combination of features to allow end to end access from any client to any service.

Each data server can host data up to 10,000 client applications at a time.

Each client application can access up to 10,000 data servers.

Tag Syntax

Visit each networking type page for syntax examples on how to define client access to remote data services.  The following in an introduction to using Basic Networking as an example.

Tag access from .NET applications, Web applications, Microsoft Excel, and service to service communications is simply defined and is all the same.  This includes HMI, Trending, Data Logging, Tag Calculations, etc.

Example of Basic Networking:

\\192.168.0.1\TagName.Value

The IP address can be replaced with a network node or registered domain name where the OAS Service is running like www.mydomainname.com.

Alarms

Remote alarm service from Alarm Logging, Alarm Notification, Alarm .NET, and Web Alarm are defined by the AlarmNetworkNodes property.

Trend History

Trend HistoryTags in both .NET and Web applications can be used to direct history to a different data server than the realtime trend Tags.  The network node syntax would be the same as the Tag access but replacing the Tag name with Data Logging Group Name.Field Name.

Example:

\\192.168.0.1\Data Logging Group 1.Field01

Web Applications

The serverURL in the HTML code will determine the first base data service the web application will communicate with.  If the Tags also reside on that same server the Tag names in the HTML code would all just be defined as local tags.

Basic Networking Example: Access to Ramp.Value on 192.168.0.1 when data server has a fixed IP address and directly accessible.

serverURL: 'http://192.168.0.1:58725'

"tag":"Ramp.Value"

The following would be an example of a network forwarding to redirect communications through the data service 192.168.0.2 for web client access to tags on a data server with IP address 192.168.0.2.

serverURL: 'http://192.168.0.1:58725'

"tag":"\\192.168.0.2\Ramp.Value"

Notice that data communications in this example from the web client is redirected through 192.168.0.1 to 192.168.0.2.

Hosting data from a laptop or server would use the Live Data Cloud Networking feature.  View Live Data Cloud Networking for setup of hosting your own data on the Internet with a standard Internet connection without the need for a fixed IP address.

OPCSystems.NET OPC Server

The OPCSystems.NET OPC Server provides access to the live Tags to third party OPC Clients.  It is best to install the OPCSystems.NET OPC Server on the same PCs that are running the OPC Clients.  No additional license is required on the OPC Client PCs.  OPCSystems.NET will utilize WCF communications to tunnel data of the .NET TCP port and eliminate the need for DCOM.

The OPC Item in each OPC Client will specify the remote data server to communicate with.

Network.192.168.0.1.TagName.Value

AddNetworkNodeAlias Method

WPF HMI .NET and WinForm HMI .NET controls have an AddNetworkNodeAlias method supported in the WPFDashbaord.WPFNetworkNodes component, .NET Data Connector component, and OPCControls.OPCNetworkNodes component.  This makes it possible to redirect communications from a data service to another with just a simple call.

VB Example:

Dim m_OPCWPFNetworkNodes As New OPCWPFDashboard.OPCWPFNetworkNodes
m_OPCWPFNetworkNodes.AddNetworkNodeAlias("localhost", "192.168.0.1")

C# Example:

OPCWPFDashboard.OPCWPFNetworkNodes m_OPCWPFNetworkNodes = new OPCWPFDashboard.OPCWPFNetworkNodes();
m_OPCWPFNetworkNodes.AddNetworkNodeAlias("localhost", "192.168.0.1");

TCP Port Numbers

The default TCP port number for .NET applications, Microsoft Excel, OPCSystems.NET OPC Server, and service to service communications is 58727.  For instructions on how change the TCP port number view Change Default Network Port Number.

The default TCP port number for Web HMI, Web Trend, Web Alarm, and PCL iOS and Android applications is 58725.  To set the default port number use the registration step of the Service Control application and set the serverURL in the web app to the desired port.

To check if the TCP port is open from a client system perform the steps in Remote OAS Service Access.

 

Legacy OAS Services

Legacy versions prior to version 12 used a default TCP port of 58724.  This is called the WCF Port number.  This is not applicable on services deployed to Linux.

Legacy OPCSystems older than version 5 use default TCP port 58723.  This legacy port number is not adjustable, but can be enabled in the data server under Configure-Options-Networking and enable the property .NET Remoting Classic Networking for older client applications or older services to communicate to a new service.  To enable a new service to talk to an older service than version 5 go to Configure-Options-Remote Services and enable the property Client .NET Remoting Classic Networking.  In the newer client application components there are provisions in each component to enable classic .NET Remoting to talk to older services.  If you are new to using Open Automation Software and are not connecting to legacy systems do not enable Classic .NET Remoting in any service or client application.

Getting Started – OPC Client

View the following video demonstrating the OPC Client .NET feature for OPC DA.

  • 00:00 – Introduction
  • 00:04 – What’s OPC Client.NET
  • 00:35 – How to use it
  • 02:06 – Direct OPC Interface
  • 03:08 – OPC.NET Tags
  • 03:25 – More Questions

Step 1

From the system that contains your OPC Client install either the full installation of Open Automation Software or the Custom installation with OPC Client Connector – OPCClient.NET.

Note: When networking third party OPC Clients to remote OAS Services always install the OPCSystems.NET OPC Server on the same computers as the OPC Client. You will not need a license on the OPC Client PCs, just where the OAS Services are.

Security Setup

In order to browse and access OAS tags from OAS Engines that have security enabled modify the file DANSrv.exe.config in the installation directory of OAS, typically C:\Program Files\Open Automation Software\OAS\.

Set both the UserName and Password within the file that would provide access to browse tags, read tags, and write tags.

<add key=”UserName” value=””/>
<add key=”Password” value=””/>

Network Setup

If the OPC Client is on a different computer than the OAS Service you are connecting to modify the file NetworkNodes.txt in C:\Program Files\Open Automation Software\OAS\ and add each IP Address, Network Node Name, or registered Domain Name you want to connect to the NetworkNodes.txt file.

Step 2

In this example we will use the OPC Foundation Sample found under the program group Open Automation Software -Tools.

From the Server pull down list select Browse.

Getting Started-OPC Client 435

Step 3

Select the local OPC Server OPCSystems.NET.

Getting Started-OPC Client 436

Step 4

Create a group subscription by right clicking on the OPCSystems.NET OPC Server.

Getting Started-OPC Client 437

Enter a Name for the subscription and select Next.

Getting Started-OPC Client 438

Step 5

Browse either the Local service or a remote service under the Network branch.

Getting Started-OPC Client 439

Remote OPC Items use the following syntax for the remote OPC Item.

Network.<IP Address, domain name, or network node name>.Tag.Value.

Example: Network.192.168.0.1.Tag.Value.

Step 6

Browse for your OPC Item to add and double click on it.

Getting Started-OPC Client 440

Here you will see both Open Automation Software tags in the service you are browsing along with the DirectOPC branch you can use to browse directly to OPC Servers on the service node. DCOM is not used in remote connections. Networking is over TCP port 58724 and this port number is adjustable under Configure-Options.

Step 7

Select Next and then Done and the value of the remote item will appear.

Getting Started-OPC Client 441

Getting Started – Data Route

Use OAS Data Route when you need to transfer data from one OAS Tag value to another Tag, OAS Tag value or fixed value to many OAS Tags, of IoT Tag Publish to MQTT Broker, Azure IoT Data Hub, AWS IoT Gateway, or Kafka broker. The source tags Tags can be local or remote.  When a Tag is set as a Destination values will be written to the Data Source defined in that Tag, examples Modbus, Allen Bradley PLCs, Siemens Controller, OPC UA and DA servers, etc.

There are 3 methods for automated data transfer that is supported by the Data Route feature of OAS.

  • Tag to Tag transfer is implemented by defining a Target in a source tag
  • Multiple Tags transfer is implemented in a Data Route Configuration initiated by event trigger, data change, or continuously at a specified rate.  Each Data Route group configuration provides mapping to set multiple tags from a fixed value or value from another tag with optional time delay
  • IoT Tag Publish to AWS, Azure IoT, MQTT, and Kafka defined directly in the respective driver interface.