🧩 What is OpenGate?

OpenGate is a comprehensive IoT and IIoT platform developed by amplía))), designed to enable intelligent, secure, and scalable management of connected devices and other entities. Its modular and multiprotocol design allows it to integrate with any type of sensors or entities regardless of the manufacturer and adapt to industries like smart grid, utilities, renewable energy, telecom, manufacturing automation, agriculture, logistics, or smart cities.

🚀 Key Highlights

OpenGate stands out for several cutting-edge features that make it a next-level IoT platform. Here are some highlights:

• Multi‑protocol, multi‑vendor architecture: Supports a wide range of technologies (Sigfox, NB‑IoT, LoRa, MQTT, CoAP, Modbus, SCADA) without vendor lock-in
• Low-code rules engine: Allows creation of custom workflows and business rules via intuitive GUI, ideal for fast adaptation
• Custom dashboards & visual wizards: Users can design interfaces and execute tasks through guided tools
• Mass & remote device management: Centralized firmware updates, diagnostics, and bulk operations
• Full enterprise integration: RESTful APIs for seamless connection to BI tools, ERPs, CRMs, and core systems
• Edge Computing with integrated AI: Enables data processing at the network edge, reducing latency and improving responsiveness, with AI modules for predictive analytics and automation

🌐 Position in the IoT Value Chain

OpenGate covers the complete IoT lifecycle:

1. At the edge, it ingests data from sensors and gateways and offers its OpenGate Device Agent (ODA)
2. In connectivity or comms, it manages SIMs and support for LPWAN protocols like NB‑IoT, LoRa, Sigfox and others
3. In the core Opengate IoT Platform, it handles device lifecycles, rule-based automation, multi-tenant isolation, offers data analysis using AI and is based on robust security
4. In the business processes, it exposes bidirectional data integration via RESTful APIs for interaction with BI, ERP, CRM, and other systems—enabling intelligent, scalable IoT ecosystems or business processes

🆚 Compared to Other IoT Platforms

Compared to other IoT platforms, OpenGate offers:

• A hybrid edge–cloud architecture in one platform for high critical solutions and infrastructures, including advanced analytics capabilities at the edge
• Broader protocol support, including LPWAN and industrial protocols that other platforms don’t include by default
• A low-code GUI rules engine, versus script-based or function-based. This feature is integrated in the product
• Native custom workspaces and dashboards and visual wizards, without needing external tools and allowing to use low-code to fully personalize them
• Built-in bulk device management, versus separate modules on other platforms
• Multi-tenant microservices, flexible deployment, and strong security—all provided out of the box
• Private instance option, it is possible to deploy your own OpenGate cloud instance or even install it on premises on your own infrastructure

Other platforms from high positioned vendors (like AWS or Azure) excel in cloud-native breadth and analytics but generally require more complex assembly (e.g., Lambda, Greengrass, Power BI). OpenGate, by contrast, is optimized for heterogeneous industrial environments with hybrid deployment needs

✅ Why Choose OpenGate?

• Modular & future-proof: Vendor-agnostic, edge-ready, adaptable to any industry
• Enterprise-grade: Multi-tenancy, security, and lifecycle management ready to deploy tens or millions of devices
• Operational efficiency: Bulk provisioning and automated workflows using API connectors reduce manual load
• Developer & integrator friendly: REST APIs and JS extensibility, ideal for full-stack integration and customizations
• Out-of-the box solution: Predefined sections, widgets, and catalog rules and operations to work with your data and devices from the first login
• Low-code friendly: GUI wizards deliver fast configurations for technical and non-technical users

OpenGate Architecture Overview

OpenGate’s architecture is designed to be modular, scalable, and highly interoperable, making it ideal for managing complex IoT and IIoT ecosystems. Here’s a technical breakdown of its core components and how they interact:

From the OpenGate architecture perspective we like to talk about a journey from south to north, where south are devices or monitored entities and where north is the OpenGate IoT Platform and its capabilities. The following sections go deeper in each component

1. Core SBI (Southbound Interface)

This layer comprises sensors, actuators, and gateways in the field or the Edge. Devices communicate via various protocols like: Sigfox, LoRa, NB‑IoT, Modbus, SCADA, or MQTT—feeding data into the platform through the connector factory. On-site, it is possible to deploy the OpenGate Device Agent (ODA) which runs lightweight edge processing: data collection, normalization, command execution, and optional AI capabilities. This local computation reduces latency and supports autonomy for critical IIoT solutions and also allows communication with non-IP-based protocols like Zigbee, RS-232, RS-485, and other, to OpenGate.

🏗️ Smart Metering devices

As part of the amplía))) commercial strategy, for the last years our tech team works harder to integrate different Smart Metering Manufacturers protocols and devices. The following table summarizes the currently integrated manufacturers:

NOTE: cf(x) means that this manufacturer is integrated using OpenGate Connector Functions

IMPORTANT : The devices on the table are the most used devices by our customers and new devices can be integrated using the standard ConnectorFunctions capabilities or through our professional services. You just need to ask us.

2. Connector Factory & Network Connectivity Layer

From the Network connectivity, secure transport of data from edge to cloud is managed here. OpenGate supports multiple network and communication channels including SIM-based networks for NB‑IoT and LTE-M, LPWAN (Sigfox, LoRa), and IP protocols (HTTP, MQTT, CoAP). This layer ensures encrypted, bi-directional connectivity, with VPNs (as special request), firewalling, load balancing, and SIM/LPWAN lifecycle management. This SIM lifecycle management is integrated as part of the OpenGate IoT Platform capabilities thanks to our mobile communications providers connectors like Kite.

🔌 Integration Without Limits

OpenGate’s Connector Factory is a cornerstone feature designed to simplify and accelerate integrations in complex IoT ecosystems. It empowers organizations to seamlessly connect external systems, ML/AI pipelines, device fleets, communications services, and more—without needing extensive coding efforts. This layer offers a Plug and play with pre-built connectors for critical systems and services:

• SIM / LPWAN management as mention before, via our mobile communication providers connectors, fully integrated with mobile provider networks—simplifying device provisioning and subscription monitoring
• Industrial gateways & protocols, including HTTP, MQTT, CoAP, Modbus, and other protocols, facilitating smooth data ingestion from field hardware
• Enterprise visibility through BI, ERP, CRM, and cloud applications, thanks to robust HTTP connectors that break down data siloes instantly and allows you to centralize and enrich data gathered in OpenGate or send to another of your business core services

These connectors guarantee secure, two-way communication and are configured visually via the OpenGate UX layer, GUI Web Console

🛠️ Connector Functions

When out-of-the-box doesn’t cut it, Connector Functions - cf(x) let you tailor data flows in minutes using simple JavaScript:

1. Define criteria—select which messages should trigger your function.
2. Write logic—parse, enrich, transform, filter, or redirect data to external systems or devices.
3. Test & deploy—switch effortlessly between Disabled, Test, or Production modes.
4. Reuse and evolve—import/export configurations or access centrally managed catalog APIs to clone and maintain across environments

📈 Why this Makes the Difference

• Speed-to-market: Achieve real-time integrations in hours, not weeks, using pre-built connectors
• Custom-savvy: Craft advanced data workflows and transformations with minimal development effort and directly from web console
• Centralized integration management: Visualize and control every connector (both standard integrations and Connector Functions) in a unified admin interface
• Reusability & deployment consistency: Enable, disable, clone, or update your connector functions with a few clicks, reducing manual errors and enforcement friction. Ideal for CI/CD pipelines and ensuring replicable, version-controlled deployments

3. Core Platform

The OpenGate Core is the brain of the OpenGate IoT platform, and it’s designed to handle the full lifecycle of connected assets for your solution. In short, OpenGate Core is particularly well-suited for organizations that need end-to-end control, real-time bidirectional response and broad device compatibility without being locked into a single vendor or cloud provider. Its main capabilities are organized in different areas as the next diagram shows:

📦 Data Modeling & Storage

Your entities, your data and your own way. OpenGate offers the possibility to adjust the data collected to your needs and desirable data structure:

• Data Modeling: Design flexible schemas for your devices and assets, defining entity types and specific types, data streams, and metadata ensuring structured, consistent data throughout the lifecycle. Use our predefined catalog or create your own
• Collection Data Lake: Ingest high-volume data in real time into a robust Data Lake organized using your data models and work with this raw real-time information to explore your entities data
• Time Series and Data Sets: Use built-in tools to filter, aggregate, and construct time bucket based “Time Series” for your entities, and Create “Data Sets” for your entities based on the data collected for a custom data view of your entities status information. Use this data structures to build custom dashboards using the OpenGate widgets catalog

This capabilities enable efficient storage and retrieval of historical data with minimal effort, reducing overhead and enhancing analytics readiness.

⚙️ Provisioning & Entity Identification

Tools to help you to populate your devices and digital assets:

• Provision tools & Provision Functions: Quickly onboard devices—individually using guided UI flows or custom JavaScript functions to automate validation, multi-entity creation, and configuration steps using low-code javascript powered capabilities.
• Entity Identification Service: Automatically generate and assign unique IDs to each device or entity, ensuring reliable tracking and simplified maintenance and detect differences between provisioned and collected data automatically.
• Entity types out-of-the-box: Build relationships and define detailed digital twins of your entities by using our devices and assets, and collect the communication modules information using our subscription and subscriber entity types.

Thanks to these tools, you can reduce manual errors, accelerate deployment, and maintain clean inventories even at industrial scale.

⚙️ Operations Engine

OpenGate’s Operations Engine empowers you to automate essential device and asset unitary or massive operations with full control and visibility:

• Schedule remote tasks like firmware updates, diagnostics, and routine checks
• Trigger operations on-demand (e.g., reboot a device, collect logs) or schedule them
• Coordinate custom multi-step workflows tied to asset lifecycles
• Create your own operations wizards directly from the OpenGate web console using JSON schema forms

The Operations Engine enables safe, repeatable actions across fleets without manual intervention, supported by execution logs and retry mechanisms for unitary or masive operations.

🧩 Rules Engine

Craft intelligent, real-time automation using the powerfull OpenGate Rules Engine:

• Easy Mode GUI: Build rules using our conditional logic visually (“if-this-then-that”) without coding expertise
• Advances Low-code GUI: Write advanced rules with custom processing, filters, and business logic using our predefined functions catalog or crafting your own. Start from scratch or use a basic catalog rule as template to build your own
• Instant triggers and alerts: Respond to anomalies, thresholds, or patterns as they happen and trigger alerts, notifications or operations from the Operations Engine as response

These capabilities offers adaptive, responsive IoT automation, combining ease of use with full developer control for customizations.

🔁 Forwarders

Ensure data, events, and alerts flow seamlessly into your enterprise systems or enrich your OpenGate Data:

• Bidirectional communication with third-parties and services
• Route information from data streams or rule outputs to external systems (ERP, BI, CRM, custom APIs)
• Choose sync or async delivery, including JSON, XML, or custom formats
• Configure via GUI or code for flexible integration needs

We want OpenGate to be Your MultiTool but sometimes you need something else, so the forwarders offers you end-to-end operational workflows, eliminating the need for separate middleware and keeping business data in sync.

4. OpenGate UX Web Console

OpenGate’s web console is meticulously crafted to balance simplicity for end-users with depth for technical teams, offering a unified interface to manage devices, data, rules, analytics, and integrations, all without deep technical training and ensuring your User Experience.

Use the powerful tools from the OpenGate’s web console to build your own IIoT solution using a predefined catalog with more than 50 customizable widgets to create the specific views for your users or your needs and take advantage of the following capabilities:

🎛️ Customizable Workspaces & Dashboards

• Select from different look and feels, upload your logos and customize the OpenGate appearance to meet your brand requirements
• Create your own workspaces tailored for specific needs or roles such as operators, analysts, or admins
• Use +50 customizable widgets to build your dashboards like charts, maps, tables, and entity lists to help you visualize the IoT ecosystem
• Personalize your dashboards with filters, layouts, refresh intervals, and interactive controls
• Use low-code snippets to make visual adjustments and visualization conditional rules depending on data values
• Share your workspaces and dashboards within your organization with user groups o specific users
• Integrate new features from external resources thanks to the custom menu areas using our secure iFrame functionality

🧭 Guided Wizards & Low-Code Tools

• Step-by-step wizards guide users through complex tasks like creating dashboards, provisioning devices, and defining rules—no coding needed
• Low-code tools let technical staff to configure advanced tasks, rules and customizations using javascript

🔒 Role-Based Access

• Centralized GUI for user & role management, enforcing permissions across the platform
• Define access policies for each workspace, feature, or dataset—ensuring data confidentiality and auditability
• Create your own roles to define specifically who do what
• Create your own multi-tenant organization to manage different levels or verticals from the same OpenGate organization

⚙️ Operational & Provisioning Interfaces

• Real-time device inventory with status indicators, clickable controls, and firmware/update scheduling from a unified screen
• Bulk operations managed through intuitive panels: filter, select, and apply actions to vast fleets effortlessly

↔️ Integration & Forwarding Configuration

• Built-in UI elements to configure Connector Functions, Forwarders, and API endpoints—fully managed via intuitive dialogs
• View logs and status of data forwarding and rule executions directly in the console

🧩 Developer-Friendly Debugging & Visualization

• Live logs and data previews within each widget and rule/connector configuration
• Test and debug Connector Functions or Rules directly in the interface before going to production

🎮 OpenGate Device Emulator

The Device Emulator is an essential tool within the OpenGate UX, enabling you to emulate device behavior instantly. This is a perfect tool for testing integrations, connector functions and rules, or debugging setups, or showcasing the platform without physical hardware and without additional tools. This gives you:

• Simulate data flows without connecting real devices which is ideal for development teams, QA, or demos
• Validate device provisioning and collection, rule triggers, forwarding logic, and dashboard visualizations
• Validate complex workflows and simulate device operation responses
• Accelerate your development by eliminating hardware procurement delays and issues by simulating device behavior in the cloud

5. Artificial Intelligence

OpenGate’s AI layer brings advanced analytics and machine learning directly into the platform core, enabling seamless data-driven insights and automated decision-making. It’s designed for both data scientists and developers as well as operations teams. Key components include:

🐍 OpenGate Data Py

Our opengate-data is OpenGate’s official Python client library that simplifies data interaction across the platform:

• 📦 Data extraction & injection: Pull collections, timeseries data, DataSets, and entities directly into Python workflows and reinyect the result data again in OpenGate
• 💡 Perfect for notebooks: Integrates with Jupyter (Data Lab) for data exploration, visualization, and other tasks
• ⚙️ API-first approach: Easy full support for REST-based authentication, querying, and batch operations in Python

📓 OpenGate Data Lab

OpenGate Data Lab embeds Jupyter Notebooks into the platform with features like:

• Notebook execution: Run notebooks manually or on a schedule as part of your data pipelines or workflows
• Full Python ecosystem: Support for scientific libraries like NumPy or Pandas
• Operational workflows: Combine data processing and analytics in a single interface that live within OpenGate using Opengate Data Py library

🏭 AI Model Factory (roadmap)

Our “AI Model Factory” is the next-gen module for end-to-end AI lifecycle within OpenGate featuring:

• Pipeline orchestration: Design sequences involving data extraction, transformation, training and inference
• Multi-format model support: Deploy and serve models for real-time predictions
• Training & retraining: Include model training pipelines to continuously update models with fresh data
• Inference services: Deploy models as services callable from the OpenGate Rules Engine for real-time decision-making

This fully integrated setup lets you build, train, serve, and manage AI models (traditional or ML models) directly within your IIoT environment

🔄 Cross-Cutting Concerns

Across all layers, OpenGate enforces:

• Security: Encryption at rest/in transit, device integrity checks, tenant isolation, authentication, and auditing.
• Scalability & Resilience: Containerized microservices, load balancing, auto-scaling, and fault tolerance.
• Monitoring & Logging: Central observability stack with metrics, tracing, alerting, and logs.
• Hybrid Deployment: Suitable for fully cloud, fully on-premise, or hybrid edge‑cloud orchestration including AI capabilities.

🔍 OpenGate Core features

The OpenGate Core is the central engine of the OpenGate IoT platform, and it’s designed to handle the full lifecycle of connected assets. Its key capabilities include:

OpenGate Core stands out in the crowded IoT platform landscape by focusing on flexibility, edge intelligence, and seamless integration, especially for industrial and large-scale deployments.

In short, OpenGate Core is particularly well-suited for organizations that need end-to-end control, real-time responsiveness, and broad device compatibility—without being locked into a single vendor or cloud provider. In essence, OpenGate Core acts as the brain of the platform—modular, scalable, and built to adapt to complex industrial environments.

🌟 OpenGate Features

OpenGate offers a rich toolbox of capabilities to help you to manage complex IoT ecosystems with security, scalability, and operational intelligence.

🔧 Device & Asset Management

• Device inventory & digital assets
  Maintain full control over your connected infrastructure, whether it’s a few devices or millions. Manage inventory, configurations, firmware, and real-time status—all from a centralized, secure console.
• Mass operations & bulk provisioning
  Scale operations effortlessly: onboard devices in bulk via intuitive wizards or Provision Functions, and execute mass firmware updates, diagnostics, or configurations across your fleet.

⚙️ Connectivity & Protocol Support

• Vendor-agnostic connectivity
  Seamlessly integrate LPWAN technologies like Sigfox, NB‑IoT, LoRa, SIM-based communication, plus IP protocols such as MQTT, CoAP, Modbus, SCADA—without vendor lock-in.
• Secure bi-directional communication
  Maintain robust, two-way communication between the platform and devices, ensuring status, commands, and updates flow efficiently and securely.

🤖 Edge Computing & Intelligence

• Integrated agent (ODA)
  Use the lightweight OpenGate Device Agent (ODA) on gateways and edge devices to collect, normalize, and transmit data—and to execute operations locally.
• Edge processing & AI readiness(alpha) Leverage edge computing to reduce cloud dependency and latency. Integrate AI-driven analytics and predictive processing directly at the edge—simplifying real-time decision-making.

📊 Custom Dashboards & Visual Wizards

• Tailored workspaces & dashboards
  Build visual workspaces with charts, maps, entity views, and more. The drag-and-drop dashboard layout allows non-technical users to craft custom displays easily.
• Guided wizards & low-code configuration
  Use visual wizards to execute complex tasks, operations, and configurations. The platform’s low-code rules engine enables fast business rule deployment without programming.

🔗 Rules Engine & Operations

• Real-time rules & automation
  Automate triggers—from simple alerts to complex multi-step operations—based on live data, with full GUI and JavaScript support.
• Operations Scheduler
  Schedule remote tasks, firmware upgrades, and diagnostics efficiently, using a built-in scheduling engine.

🔐 Security & Multi‑Tenant Support

• End-to-end security
  Security controls are built across all layers: device, connectivity, and data‑center. Includes encryption, access control, auditing, and secure firmware validation.
• Multi‑tenant architecture
  Manage multiple organizations, workgroups, and sub-tenants with complete isolation—supporting flexible governance and role-based access control.

🔁 Integration & API Access

• Northbound RESTful APIs
  Connect with BI tools, ERP/CRM systems, external applications or custom integrations using comprehensive REST APIs for management, data retrieval, analytics, and operations.
• Connector module support
  Enhance integrations with connector functions that bridge data from external systems or third-party services into OpenGate.

📈 Data Lake & Analytics

• Time-series ingestion & visualization
  Ingest high‑volume sensor data into a data lake. Use built-in modules to filter, aggregate, and visualize data for insights and trend analysis.

✅ Why These Features Matter

OpenGate unifies the entire IoT stack—device management, connectivity, edge processing, automation, security, and analytics—into a single, extensible platform. This means faster deployments, less overhead, and safer operations, especially for heterogeneous, large-scale, or industrial setups.

🔐 OpenGate login page

To begin using OpenGate IoT Platform, the first essential step is accessing its Web Console. This interface serves as the GUI control center where users manage devices, define rules, monitor telemetry, and configure their IoT ecosystem.

Users must begin by navigating to the OpenGate Console URL. Upon reaching the login page, access is granted via credentials and TOTP (serving as Two Factor authentication method), depending on the authentication method configured for your organization.

🛡️ TOTP Login

TOTP (Time-based One-Time Password) is a security protocol used in two-factor authentication (2FA) systems. It generates a temporary, one-time code that changes every 30 or 60 seconds, based on the current time and a secret key shared between the user and the service. This ensures that each code is unique and valid only for a short duration, adding an extra layer of protection to user accounts.

⚠️ Lost Password?

It is possible to regain access to an account when standard authentication fails, such as forgetting your password or losing access to a two-factor authentication app (TOTP). Just click on the link below the login form and then you can retrieve your password

🏰 OpenGate home page

Once authenticated, users arrive at the Home page. This landing view presents the workspaces and dashboards that you have configured or the ones your administrator or some partner share with you.

The primary navigation menu is positioned on the left side of the screen. From here, users can enter dedicated sections such as Entities, DataStreams, Provisioning, Functions, Rules, Catalog, and Dashboards. Each section is structured to guide users through specific configuration workflows, offering both summary views and in-depth drilldowns.

The top bar of the console includes access to user settings, notifications, language preferences, and a global search tool. This enables quick access to specific entities, rules, or logs without needing to navigate the interface manually.

📚 OpenGate Sections

Once logged into the OpenGate IoT Platform, you can choose between some different tools among the following:

1. Workspaces and Dashboards

An intuitive, visual interface that centralizes OpenGate operations. Workspaces allow you to organize custom views tailored to their roles or operational needs, while Dashboards provide dynamic panels with charts, key metrics, and real-time KPIs. Perfect for quick monitoring and status analysis of devices and services.

We will cover this in detail in the step 7.Workspaces and Dashboards section.

2. OpenGate Web Administration

The core administrative console of OpenGate. Through this web interface, you can manage all the functionalities of your OpenGate IoT Platform account like provisioning and managing entities and digital assets, creating users and configure different access roles, build connector functions, data models, rules, operations, and so on.

It’s the main hub for fine-grained platform customization and we will use it several times during this tutorials.

3. Operations Support System

You can configure your own dashboards in the Workspaces and Dashboards OpenGate area, but we think that this area facilitates the management of the OpenGate IoT Platform Operations, directly out of the box. It allows you to monitor all the scheduled operations, its executions and details, so it’s a powerful tool for large-scale, real-time operations control.

This tool also offers you the possibility to launch and configure new Operations from wizards that allow you to configure operations for one, tens or millions of devices based on filters.

4. OpenGate Device Emulator

A test environment designed for developers and integrators. It simulates complete device behavior without requiring physical hardware, making it ideal for validating configurations.

You can use the Device Emulator to collect specific data as the same way that the device does, testing through all the workflow of the OpenGate IoT Platform and so, ensure that connector functions, rules and operations perform as expected before deployment.

5. Analytics (OpenGate Data Lab)

The analytical layer of OpenGate IoT Platform. It offers the possibility to work with your datalake, time series and data sets, by using our OpenGate Data Lab. This tool gives you all the powers of Jupyter Notebooks and python to work with your data: create analytics tasks to find patterns, build KPIs, build automated custom reports or periodic custom calculations over your data.

In the near future, we will expand this tool by adding an AI module to work with, directly from OpenGate.

OpenGate Users and roles

OpenGate offers a flexible system for user and role management. The platform primarily distinguishes between administrators and regular users.

• 🛠️ Administrators: Users with the highest level of access and permissions. They can manage key account settings, such as organization structure, user provisioning, datamodel and datastream configuration, and the creation of time series and datasets. Administrators are typically responsible for modeling the collected data, defining a structured environment through workspaces and dashboards, and sharing them with other users.

• 👥 Platform Users: Users with more limited roles, focusing on solution operations. They interact with entities and digital assets, oversee values, manage rules, alarms, tickets, and more. Administrators may create specific dashboards and workspaces for these users, or they can build their own based on their access level.

Additionally, all roles are fully customizable, allowing fine-grained control over access and actions across the platform. While the deeper logic and configuration of roles is explored in the complete OpenGate API documentation, this guide focuses on user creation and role assignment via the built-in wizard.

👤 Creating a new user

Administrators can onboard users using a step-by-step wizard located in the “Users” section of the “Opengate Management” web console. Click on “+ Create user” within the users table to begin.

Once selected, the wizard guides you through the essential onboarding fields:

• User’s full name and email address: The email address will serve as the username and is required for password recovery.
• Organization: Indicates where the user belongs. This could be a suborganization if multiple levels exist within your OpenGate account.
• Role selection: Choose from predefined or custom roles.
• Password setup: You can define an initial password, enforce a password change on first login, and configure TOTP (Time-Based One-Time Password).

⚠️ IMPORTANT: Passwords must contain at least 12 characters, including uppercase letters, lowercase letters, numbers, and symbols.

After completing the form, the user is registered immediately and can log in with the provided credentials. Permissions are granted based on the assigned role, determining their access scope and allowed actions.

🎭 Creating a custom role

Let’s take a quick view of this functionality. It is possible to create custom roles if you login as an Administrator user and go to “Opengate Management > Permissions”, then click on “+ Create web profile”.

This opens a wizard to help you define a new role with tailored permissions:

📌 IMPORTANT: Custom roles apply only to the OpenGate GUI. If your users need API access, remember that only the predefined OpenGate roles are supported at the API level.

📦 Data Modelling in OpenGate

OpenGate provides you powerful tools to create and manage data models that define how information flows through the platform. This includes setting up entities, digital assets, and the structure used to monitor, analyze, and act upon collected data.

A well-defined data model allows you to:

• Represent real-world objects (devices, vehicles, installations, etc.) as entities or digital assets
• Define its properties, attributes or collected data as datastreams to capture metrics, behaviors, and status information
• Enable visualizations creating dashboards and templates for your entities
• Create rules that respond to data values or changes over time
• Manage the entities creating operations

Data models, are organized into groups or Categories and, each category contains one or more datastreams, that are the representation of each entity data or property. The platform enables administrators to build these structures manually using the OpenGate web interface (or programmatically via the API). For a hands-on guide to building your data model and so, your data structure, let’s continue with the Datamodel configuration.

🏗️ Create your first Datamodel

We are going to create our first Datamodel in our OpenGate IoT Platform account (We assume that you have an OpenGate user with “admin” role). Following our story regarding the warehouse facility, we are going to create this structure where the intention is to represent parking slots and its status (the parking slot occupation) and facility rooms and its status (temperature, humidity and presence):

Data Model

• ID: warehouse

• Name: Warehouse

• Description: Warehouse datamodel for parking and facilities

  Category 1

  • ID: parking
  • Name: Parking Data Stream 1
    • Data Stream ID: occupation
    • Data Stream Name: Parking Space Occupation
    • Data Stream Description: Parking space occupation detected
    • JSON schema: boolean

  Category 2

  • ID: facility

  • Name: Facility

    Data Stream 1

    • Data Stream ID: temperature
    • Data Stream Name: Temperature
    • Data Stream Description: Ambient temperature registered
    • JSON schema: number

    Data Stream 2

    • Data Stream ID: humidity
    • Data Stream Name: Humidity
    • Data Stream Description: Humidity registered
    • JSON schema: number

    Data Stream 3

    • Data Stream ID: presence
    • Data Stream Name: Presence
    • Data Stream Description: Presence detected
    • JSON schema: boolean

1. Open the Data model wizard

To do that, go to “OpenGate Management > Data Models” and click on “+ Create Datamodel”. This opens the wizard to create your new datamodel.

2. Create the new Data Model

It is possible to import a JSON file to fill the form (this will be provided bellow), or to follow the wizard to fill the data model information. Because is your first datamodel, we recommend you to fill it manually to fully understand each step, so let’s create the data model “warehouse”:

Allowed Resource Types: This field indicates to what type of entities this datamodel applies. For this demo, we will choose device and asset (We detailed the different entity types in the next section: 4-Entity Provisioning). For this tutorial, we will create later the assets to represent parking slots and facility rooms and some devices for the different sensors that each asset has.

3. Create the first category

So, next step, we are going to create the category “parking”:

4. Create the first data stream

And then, create the datastreams from “+ ADD DATASTREAMS” button

Lets start with the first datastream “occupation”:

For this demo, just fill the first step and click on “EXECUTE”. Then our new datastream occupation is added to the parking category:

5. Finish your work:

Continue at your own and add the other category and its datastreams. At the end, you should have the following:

If all the information is correct, click on “EXECUTE” to create the datamodel, you will receive the following message:

🎉 Congratulations you create your first datamodel successfully.

🗒️ Advanced tips

Here you can download the JSON to be imported in the wizard using the top option “Import/Export configuration”

Copy the following JSON and paste into the code box:

{
	"organization": "workshop",
	"identifier": "warehouse",
	"name": "Warehouse",
	"version": "1",
	"description": "Warehouse datamodel for parking and facilities",
	"allowedResourceTypes": [
		"entity.asset",
		"entity.device"
	],
	"categories": [
		{
			"identifier": "parking",
			"name": "Parking",
			"datastreams": [
				{
					"identifier": "occupation",
					"name": "Parking Space Occupation",
					"description": "Parking space occupation detected",
					"period": "PULSE",
					"access": "READ",
					"schema": {
						"type": "boolean"
					},
					"storage": {
						"period": "NEVER"
					},
					"unit": {
						"label": "",
						"symbol": "",
						"type": ""
					},
					"icon": {},
					"modifiable": true,
					"calculated": false,
					"required": false,
					"indexed": false
				}
			]
		},
		{
			"identifier": "facility",
			"name": "Facility",
			"datastreams": [
				{
					"identifier": "temperature",
					"name": "Temperature",
					"description": "Ambient temperature registered",
					"period": "PULSE",
					"access": "READ",
					"schema": {
						"type": "number"
					},
					"storage": {
						"period": "NEVER"
					},
					"unit": {
						"label": "",
						"symbol": "",
						"type": ""
					},
					"icon": {},
					"modifiable": true,
					"calculated": false,
					"required": false,
					"indexed": false
				},
				{
					"identifier": "humidity",
					"name": "Humidity",
					"description": "Humidity registered",
					"period": "PULSE",
					"access": "READ",
					"schema": {
						"type": "number"
					},
					"storage": {
						"period": "NEVER"
					},
					"unit": {
						"label": "",
						"symbol": "",
						"type": ""
					},
					"icon": {},
					"modifiable": true,
					"calculated": false,
					"required": false,
					"indexed": false
				},
				{
					"identifier": "presence",
					"name": "Presence",
					"description": "Presence detected",
					"period": "PULSE",
					"access": "READ",
					"schema": {
						"type": "boolean"
					},
					"storage": {
						"period": "NEVER"
					},
					"unit": {
						"label": "",
						"symbol": "",
						"type": ""
					},
					"icon": {},
					"modifiable": true,
					"calculated": false,
					"required": false,
					"indexed": false
				}
			]
		}
	]
}

then click on apply in form:

This apply the JSON in the wizard that can be used if desired, directly using the API.

🌐 The OpenGate Entity Types

OpenGate models several types of entities to structure and manage your IoT ecosystem. These entities are:

• Asset: A digital representation of something that may have one or more related devices. For example: a parking slot, a warehouse room, a patient, a wind turbine, or a solar plant.
• Device: Typically a physical component such as a sensor or machine. Examples include temperature or motion sensors, industrial PLCs, water/gas meters, or generators.
• Subscription: The communication contract associated with a device. This could be a 5G or NB-IoT mobile data plan.
• Subscriber: The identifier that enables communication, usually a SIM or eSIM number.
• Ticket: A special entity used to log work within the platform, such as on-site deployments or repair processes.
• Organization: Represents a company or its sub-organizations.
• Channel: A logical grouping of devices, often organized by location, function, or asset group.

⚙️ Provision new Entities

To begin collecting data from your ecosystem, you’ll need to provision entities in OpenGate. There are three ways to do this:

🧙‍♂️ Using the Wizard

OpenGate includes a guided wizard to help you create new entities easily, step by step. Although the wizard is customizable, for this tutorial we’ll use the default version.

1. Open the wizard from the UI.

Go to “Opengate Management > Devices”, then click on “+ Create Device” and the wizard start

2. Fill the first step: Enter administrative information (name, type, organization, etc.).

As this tutorial’s purpose, we will fill the most commonly used fields, that are:

• Unique Identifier: This is the unique ID of the device on the platform, use [YourPrefix]-ps-001
• Organization: To what organization this entity belongs. We have not more in this tutorial, use workshop
• Channel: Group of devices, in this tutorial we just have default_channel (workshop)
• Plan and Service Group: We don’t go deeper in this tutorial for these fields but Plan indicates the traffic and data policy for this devices, and ServiceGroup, indicates the operations group of the entity. Use defaults
• Specific Type: As the name indicates, this allows you to set the specific type of device. This works like a label, and later we will see how to create filters based on this field. The options here are predefined but an Administrator user can customize them. Use SENSOR
• Administrative Status: This is the Administrative Status of the entity, use ACTIVE
• Operational Status: This is the operational Status of this entity, use NORMAL

🎯NOTE: The next steps are optional, but for this tutorial we will show you the most relevant standard fields

3. Step 2: Inventory

This step allows you to define other device info, lets fill the following:

• Name: This is the name of the entity, ussually this is a commonly used name in your solution. Use: Parking Sensor 001
• Serial Number: This is the serial number, usually a device serial number is an unique number for the hardware itself. Use: PS.AABBCCDDEE00001

This group of fields are not mandatory and we will not fill in this tutorial, but just for clarification the others fields are:

• Description: Obvious, a free text description for the entity just in case we need some notes.
• Topology Path: Some times there are devices that have not communication capabilities by themselves or that require another entity to play as gateway to send the information depending on the architecture requirements. This field allows you to provision the device that play this role for this entity. It is possible to choose one or create a new one from this same screen.
• Hardware and Software/Firmware: Are used to indicate the inventory information for the hardware and software/firmware version of the device. This information is provisioned by a user, and may differ from the information collected from the device.

After fill the fields that we need, you should see this:

4. Step 3: Location

It is possible to define the location of the devices. For that this wizard step allows you to use directly the map to click on the entity location. Additionally, you can fill the information manually.

For this demo purposes use the location that you want. Try to click in the map, you use the map left bar to show it in full screen

5. Step 4: Security

This step allows you to provision the standard OpenGate security options. We will not use it in this demo to easy accomplish the tutorial but you can provide here:

• Trusted Boot: If configured a device must present this value on each collection event
• Certificates: An administrator can add and manage certificates for your OpenGate organization
• DLMS security params: DLMS devices are supported by OpenGate for different protocols and so, you should provide its security information to use them.

6. Step 5: Interfaces

As we mention before in this HowTo’s serie, OpenGate can work with several parts of the IoT Value Chain and so, our platform allows you to manage and monitor even the communications layer, assotiated with your entities. This includes its communication modules, so from here you can provision the communications modules that the device has

For this demo, we will add one communication module (a device can have many) and we will add a Mobile communications module.

Click on “ADD” button and the platform will fill default values for the Subscription and the Subscriber. In case you have a real device with this capabilities, and so your own communications layer, you can fill this step form with your real values. In any case, you should see something like this:

7. Step 6: Custom

This field allows you to fill any other “provision datastream” from the OpenGate standard catalog, or another one that you create in your own datamodel by searching it from the input field

8. Confirm your settings

Click on “Execute” and check the confirmation message

🎉 Your new Entity is created!

Finish your work

Now, to continue this tutorial, you can go to the bottom of this chapter and create all the needed entities contained in the excel files using the wizard, or give a try to the provision functions on the section bellow “Bulk Provisioning”

🚀 When to use this method:

Best for onboarding a small number of entities manually or quick add unitary devices. It is especially useful during prototyping, demos, or for users unfamiliar with API or scripting tools.

📦 Bulk Provisioning

Bulk provisioning enables you to register multiple entities at once via uploaded templates and custom logic. This method uses Provision Functions, which allow you to apply JavaScript logic to Excel files to create, modify, or remove entities in bulk. The configured JavaScript logic will be applied to each row and the result will be noted in an additional column. A great feature is that, after the provision function execution, you can download the result file to check what happened with every row, so you can fix the rows with problems if exists and execute again the provision function with this file so only the pending rows will be executed (what a powerful tool! right?)

Let’s use this method to provision some sample entities

1. Open the wizard

Go to “Opengate Management > Provision functions”, then click on “+ Create Provision Function” and the wizard start

2. Step 1: Administration info

Fill the Name of the Provision Function. For this tutorial, we are going to configure our provision function to create rooms as assets for our warehouse from an excel file, so we call it CreateRooms. This will create as many assets as rows contained in the Excel file during the provision function execution.

3. Step 2: configure your provision function

Now we are going to create our provision function to create assets… The OpenGate Provision Functions allows you to use javascript to manipulate the excel file and to do whatever you need during the provision function execution.

The parameters you need to indicate are:

• Source file settings: “Sheet Name” of the file, and “Header row” number fo find the data to be used during the provision proccess. Use: Sheet1 and 1
• Result file configuration: This is the name of the column where the result of each row will be shown.
• Provision function definition: The javascript code to execute within the provision funtion.

To this tutorial, we prepare the code for this provision function that creates rooms as assets, so you can download it and test this functionality:

Copy the following JavaScript and paste into the code box:

/* MANDATORY FUNCTIONS */

function normalizeRawObject(rawObject) {
   try {
      var normalizedObject = {
         organization: readMapValue(rawObject, 'ORGANIZACION', '', 'A'),
         identifier: readMapValue(rawObject, 'IDENTIFICADOR ESTANCIA', '', 'B'),
         name: readMapValue(rawObject, 'NOMBRE', '', 'C'),
         adminstatus: readMapValue(rawObject, 'ESTADO ADMINISTRATIVO', '', 'D'),
         serviceGroup: 'emptyServiceGroup',
         specificType: 'ZONE',
         channel: 'default_channel'
      };
      return normalizedObject;
   } catch (e) {
      printLog('>> normalizeRawObject(): exception: ' + e);
      throw e;
   }
}

function actionsPlanning(normalizedObject) {
   var actions = [];

   printLog('Row data - identifier: ' + normalizedObject.identifier);

   var assetExists = checkAsset(normalizedObject.identifier);
   var assetEntity = generateAssetEntity(normalizedObject);

   if (assetExists){ /* PUT */
      actions.push(PATCH_ASSET_ACTION(assetEntity, 'Patch asset entity'));
   } else { /* POST */
      actions.push(CREATE_ASSET_ACTION(assetEntity, 'Create asset entity'));
   }

   return actions;
}

function customErrorTransformer(errorManager) {
   return errorManager.getFirstErrorAsString();
}


/* EXTRA FUNCTIONS */
function generateAssetEntity(normalizedObject) {
    try {
        var assetEntity = new Entity()
            .addDatastream('resourceType', 'entity.asset')
            .addDatastream('provision.administration.organization', normalizedObject.organization)
            .addDatastream('provision.administration.channel', normalizedObject.channel)
            .addDatastream('provision.administration.serviceGroup', normalizedObject.serviceGroup)
            .addDatastream('provision.administration.identifier', normalizedObject.identifier)
            .addDatastream('provision.asset.identifier', normalizedObject.identifier)
            .addDatastream('provision.asset.name', normalizedObject.name)
            .addDatastream('provision.asset.administrativeState', normalizedObject.adminstatus)
            .addDatastream('provision.asset.specificType', normalizedObject.specificType)
            ;
        printLog("entity asset generated");
        /*printLog(JSON.stringify(assetEntity.entityJson,null,'\t'));*/
        return assetEntity.entityJson;
    } catch (e) {
        printLog('>> generateAssetEntity: Exception: ' + e);
        throw e;
    }
}

You should obtain this:

4. Step 3: Summary and execute

As with the other OpenGate wizards, the final step always shows you the summary of what you configured to confirm and the “EXECUTE” option.

👏 You created your first provision function!

5. Using the provision function:

Now that we have our provision function, let’s use it to create our assets that represents the rooms of our warehouse:

5.1 Go to “OpenGate Management > Bulk provisions (Advanced)” and click on “Upload Bulk File (Advanced)” This opens the wizard to execute a provision function process

5.2 Step 1: Choose our Provision Function Choose our new provision function “CreateRooms”

5.3 Step 2: Upload your file Use the file 🗒️provision_rooms.xlsx. This file contains some rooms to be populated into our OpenGate.

⚠️IMPORTANT: Please edit them and change [YourPrefix] and [YourOrganization] with your values

After upload the file, you will see the first rows as preview

5.4 Step 3: Preview results Because this is a critical functionality, this step allows you to check as preview what the provision function selected will do with the first rows.

5.5 Step 4: confirmation We want to repeat this… Because this is a critical functionality, you must check the doble confirmation before click on “EXECUTE”

6. Check the process result

The execution of a Provision function may take some minutes depending on the actions, rows and so on. For that, the process will execute in background and the execution is shown on the screen, Check that the status is “IN_PROGRESS”

Click on refresh to check if the process is “FINISHED” and check the results on columns “Processed”, “Successfull” and “Error”. Remember, you can download the result file to check the process row by row. You will se something like this:

🚀 When to use this method:

Perfect for mass onboarding, data migrations, or applying business logic during entity creation and modification, o even to delete groups of entities.

🏗️ Continue the tutorial

To finish the tutorial properly, use the method you prefer, wizard or bulk creating another provision function, to create the entities containted in this files:

• 🗒️prov_function_sensors.js: This contains the javascript code of the provision function to populate sensors and link them (as related entity) to the assets created previously.
• 🗒️provision_rooms.xlsx: This file contains some rooms for our warehouse that will represent our facilities for the tutorial.
• 🗒️provision_sensors.xlsx : Here you can find the devices that will be assigned to the different rooms

Check our new entities

When you finish this chapter, you should see the following entities:

Devices:

Go to “OpenGate Management > Devices” and you should see your devices

Assets:

Go to “OpenGate Management > Assets” and you should see your assets

🚨 Important notes

🆚 Provision vs Collection

The data or information that we entered during this chapter is recorded in OpenGate as Provision Information in Provision Data Streams (OpenGate standard or custom data streams from your datamodels). This means that this information is entered by someone and is not collected from the device.

The data collected directly from the device through the south API, passing through all the workflow that we discussed in the OpenGate Introduction (Connector functions, Rules, and so on) is recorded in the platform as Collection data streams datapoints.

IMPORTANT: This functionality allows you to distinc the information provided vs the information collected, and is a powerful tool, because cometimes the inventory information differs from the collected information and you may detect missmatchs between the information of your entities what you think you have and the information that the entities realy have.

⚠️ Using bulk for delete

Is posible to use the provision functions to delete entities but remember… some actions that you perform on OpenGate sometimes can not be undone…

We provide you this two examples for provision functions to delete entities to clean your workshop entities if needed. You can download the javascript files and create new provision functions with the code provided:

• 🗒️prov_function_remove_sensors.js: Remove sensors from your account.
• 🗒️prov_function_remove_rooms.js: Remove rooms from your account.

🔌 Using the OpenGate API REST

Remember that OpenGate’s REST API offers all the functionality managed from the GUI so, for more control and automation, OpenGate’s REST API lets you create entities programmatically that is so powerful in serveral ways.

1. Prepare your provisioning JSON object according to the OpenGate schema.

You need to build a valid JSON following the specification of the OpenGate Provision API. Go to https://documentation.opengate.es/api/management/organizations/channels/entities/devices/index.html#api-specification

2. Retrieve your API key from the platform.

For security concers, each OpenGate user, has its own API KEY. Your can obtain your API KEY directly from the OpenGate GUI. Just go to the OpenGate web console and click on the top right user icon button, then click on copy next to APY KEY

Annotate this API KEY and… of course, do not share it with anyone…

3. Send the request to OpenGate.

Send the request to the provision endpoint: https://api.opengate.es/north/v80/provision/organizations/[YourOrganization]/devices/[YourEntityID]?flattened=true

4. 🎉 Entity created!

If you receive a 200 as response, all is fine, if not, fix the errors and repeat the process

🚀 When to use this method:

Ideal for backend integrations, automated deployments, or provisioning at scale when combined with external systems.

📡 Data Collection in OpenGate

Once entities and devices are provisioned, the next step is to start collecting data. OpenGate offers the OpenGate Device Emulator to simulate, ingest, and so check your OpenGate workflows in real time. This chapter focuses on how to send data to the platform, monitor its flow, and validate that everything is working as expected.

In our ongoing scenario, the IT team has already provisioned ambient and presence sensors across the warehouse and parking area. Now, they want to verify that these sensors are sending data correctly and that the platform is capturing it.

IMPORTANT: All the data collected using the OpenGate Device Emulator will be recorded as collection datapoints for the data streams that you use.

🧪 Simulating with the Device Emulator

OpenGate includes a built-in Device Emulator that allows users to simulate telemetry from virtual devices. This is especially useful during testing phases or when physical devices are not yet deployed.

For this tutorial we are going to:

1. Navigate to the Device Emulator section in the console.
2. Select one of our warehouse sensors.
3. Send test data for that sensor.
4. Repeat the process with a second device to simulate multiple inputs.

1. Navigate to the Device Emulator section in the console.

Go to the OpenGate web console and click on the left menu on “OpenGate Device Emulator”. We recommend you to choose a new tab using the nested button “NEW WINDOW”

2. Collect data

Choose the entitiy to emulate. We will use [YourPrefix]-ws-stemp02 from our tutorial. In this tutorial, this device represents a device with has temperature and humidity sensors

As you can see, there are some tabs to gives you access to powerful tools to emulate the device:

• SYSTEM: This allows you to collect the OpenGate standard inventory data streams emulating the device
• RECOLECTION: From here you can emulate the data streams collection that you want. We will use this in the tutorial.
• OPERATIONS: Here you can emulate the Operation Response from the device to check operations workflows.
• MAP: This allows you to collect a location event directly from a map.

For this tutorial, we will use the “RECOLECTION” tab to send some basic data collection for our data streams. click on “RECOLECTION” tab, then enter temperature and humidity in the “Datastream id” box. This add to the collection data form, the datastreams selected so you can enter some value

click on “SEND DATA and choose “Once Now” to send one collection event. You may use the emulator as periodic event generator using “Once Every” option, but for this tutorial, we just need to send one value.

Click on “SEND DATA” and a confirmation message appears:

3. Send more data!

Now choose the entitiy [YourPrefix]-ws-spres02 from our tutorial, this represents a presence sensor. Just choose presence datastream and check the box to record a “true” value for presence detected.

Click on “SEND”, and “SEND ONCE” as the last time.

📊 Viewing Data in Entity Panels

Once data is received, it can be visualized directly in the Entity Details Panel. Let’s view the data and relationship between entities and assets

1. Checking data is received in devices

Go to “OpenGate Managemenet > Devices” and click on the menu for “[YourPrefix]-ws-stemp02”, then choose “Entity Details Panel”

Here you can see the last value for the data streams that we use for the test: temperature and humidity:

Now repeat the process for [YourPrefix]-ws-spres02 and check that the “presence” value is collected in the data stream. You will see something like this:

2. Checking data is populated to the asset

As you may notice, both devices [YourPrefix]-ws-stemp02 and [YourPrefix]-ws-spres02 are related with the [YourPrefix]-ws-room02 asset. That means that both devices are present in the same room of our warehouse and then both devices provide data about the status of that room, so the data of bothe devices will be populated to the asset

To check this, just go to “OpenGate Management > Assets” and click on the menu for the [YourPrefix]-ws-room02

As you can see there are some relevant information here… On one hand, you can see that the related devices for that asset are [YourPrefix]-ws-stemp02 and [YourPrefix]-ws-spres02 and, additionaly you can check that the data collected for that devices, is recorded also for the asset so you we have values for temperature, humidity and presence.

🧠 Pro Tips

1. Using the emulator to simulate devices helps you to test dashboards, connector functions, rules, operations and so, the entire OpenGate workflow that you are configuring. You can also combine emulated data with real devices to validate hybrid scenarios.

2. On the “RECOLECTION” tab, you can IMPORT/EXPORT a JSON file with the datastreams and values to use so you may prepare different sets of data to work in a more efficient way.

3. The exported JSON from the “RECOLECTION” tab, works directly using OpenGate South API collection endpoint. Just paste the JSON on the POST request body to test it!

⚡ The Superpower of Connector Functions

What if your devices don’t follow the OpenGate standard message schema?… Use Connector Functions. Connector Functions are one of OpenGate’s most powerful features. They allow you to transform, enrich, and adapt incoming data so it can be properly collected and processed by the platform.

Whether your devices send custom payloads, use different field names, or require preprocessing, Connector Functions give you the flexibility to make it work.

🧪 Connector Function Example

Let’s walk through a practical example. We’ll create a Connector Function to receive a JSON payload using the OpenGate Standard HTTP connector and adjust it to collect the values correctly.

🔧 Step 1: Create the Connector Function

1. Open the wizard Go to OpenGate Management > Connector Functions and click on New Connector Function.

2. Fill administrative data Let’s configure our Connector Function administrative data:

• New Connector function?: In case we have others we could clone another as template, but this is our first one, so click on New Connector function
• Name: for this tutorial, use testCF
• Operational Status: You can choose if you want to enable or disable this CF, choose Production
• Type: We said that is a superpower because not only we can use the Connector Functions to collect data. We can use it to manipulate operations request or responses. For this tutorial, choose COLLECTION

3. Configure criteria This allows you to decide what of the available protocols will activate this Connector Function and the URI to use as target by the devices collection process. For this demo, we will use https:// and for the URI enter: testCF. As you can see, our endpoint will be https://api.opengate.es/south/v80/devices/{deviceId}/testCF where {deviceID} must be replaced by the device identifier.

4. Definition, Let’s Coding! All the power of JavaScript and a lot of predefined functions and connectors are available for you to build your connector function. For this tutorial, the idea is to show you the power of this functionality, so let’s code a basic connector function that take the values of the payload (we will see later the payload and collect them to the device datastreams).

Check the code below, read the code comments to better understanding:

// Connector function start
// We have vailable the "entity" information which triggers the Connector Function so we can extract some data from it
const orgID = entity._value('provision.administration.organization');
const entityID = entity._value('provision.device.identifier');
var date = new Date();
const time = date.getTime().toFixed(0);

//The OpenGate "logger" is available for you to use with some levels like DEBUG or TRACE
logger.debug('Executing Connector Function...');
logger.debug('Payload received in ORG: ', orgID, 'for entityID: ', entityID, ' - payload:  ', JSON.stringify(payload, null, 2));

// Datapoint collection using payload data
collection.addDatapoint('temperature', payload.temp, time);
collection.addDatapoint('humidity', payload.hum, time);
collection.addDatapoint('presence', payload.pres, time);
logger.debug("CF will collect the following: ", collection);

//Send the collection object with the datastreams information
collection.send()

Use this code, copy and paste into the code box and click on “VALIDATE CODE” ⚠️ IMPORTANT: Choose JSON as Payload type in the top part of the screen and click on validate code. Then, go to the next step.

5. Review the summary and EXECUTE! You can check what we will do with this connector function from the summary. Click on “EXECUTE” to save it.

🐞 Step 2: Prepare for Debugging

Now that we have created our Connector Function, we want to ensure that it works so, for that OpenGate offers the possibility to debug it directly on the platform. We need a couple of things…

1. Use a Test Device

Remember our first device: [YourPrefix]-ps-001?
We’ll use it to test the connector function.

• Go to OpenGate Management > Devices
• Click EDIT from the entity menu
• In the wizard:
  • Set Administrative Status to TESTING
  • Set Operational Status to TESTING
  • Click EXECUTE

2. Open Connector Function Logs

Go to OpenGate Management > Connector Functions
Click on OPEN LOG for your connector function (testCF)
In the log viewer, set the log level to DEBUG to see detailed execution traces that we configured previously.

🔌 Testing with the OpenGate REST API

OpenGate’s REST API provides full access to platform functionality, including data collection. The endpoint used by the Device Emulator is the same one your physical devices will use via the HTTP connector.

1. Prepare Your JSON Payload

For this tutorial, use the following example payload:

{
  "temp": 23.5,
  "hum": 48,
  "pres": true
}

2. Retrieve Your API Key

Each OpenGate user has a unique API key for authentication.

• Go to the OpenGate Web Console
• Click on your user icon (top right)
• Copy your API key from the dropdown

⚠️ Important: Keep your API key secure and never share it.

3. Send the Request

Send a POST request to the collection endpoint replacing {{Device-ID}} with [YourPrefix]-ps-001:

https://api.opengate.es/south/v80/devices/{{Device-ID}}/testCF

Use a tool like Postman and include your API key in the headers:

X-ApiKey: [YourAPIKey]
Content-Type: application/json

If the response status is 201 Created, your data was successfully received.

📋 Check Connector Function Logs

Return to the Connector Function log viewer and inspect the execution trace.
If the function ran successfully, you’ll see the transformed payload and confirmation of data collection.

📊 Validate in Entity Details

Finally, go to OpenGate Management > Devices
Open the Entity Details Panel for the device "[YourPrefix]-ps-001"
You should see the collected values displayed in the corresponding datastreams.

🚀 Why Connector Functions Matter

Connector Functions are more than just a technical feature — they’re a gateway to flexibility, interoperability, and control.

In real-world IoT deployments, data rarely arrives in a perfect format or the firmware devices cannot be manipulated. Devices from different vendors, legacy systems, or custom firmware often send payloads that don’t match the expected schema. Without Connector Functions, this would mean costly integrations, manual preprocessing, or limited compatibility, as well as generate and deploy new software versions when devices or firmwares change…

With OpenGate’s Connector Functions, users can:

• 🧠 Transform incoming data to match their datamodels, regardless of origin for different supported protocols (HTTPs, COAPs, DLMs, etc.).
• 🧩 Enrich telemetry with metadata, calculated fields, or contextual information and fill other datastreams with values calculated in processing time.
• 🔄 Normalize formats across heterogeneous devices and protocols.
• 🛠️ Adapt to change — update logic as devices evolve or business rules shift directly from the OpenGate Web Console.
• 📈 Accelerate onboarding by removing friction between device and platform, or additional services.

Whether you’re integrating industrial PLCs, smart meters, or custom-built sensors, Connector Functions empower you to make OpenGate work for your data — not the other way around.

💡 Pro Tip: Use Connector Functions to build reusable logic across multiple devices or projects. They’re not just a patch — they’re a strategic tool for scalable IoT architecture.

🧭 Workspaces & Dashboards in OpenGate

In the previous steps, we’ve covered everything needed to collect data in OpenGate and make information from devices and assets available on the platform. We’ve provisioned entities, configured datastreams, and started receiving real-time data even adjusting the data using Connector Functions.

Now it’s time to shape that data so we can work with it effectively and build our IoT solution on top of OpenGate. To do this, we’ll use Workspaces, which allow you to visualize, organize and build your solution areas, and Dashboards, where you usually work to monitor, explore, and interact with entities data in real time.

• A Workspace is a container that organizes dashboards around a specific context — such as a location, a functionality, a project, or a team.
• A Dashboard is a visual canvas within a workspace, composed of customizable Widgets that display data from entities, datastreams, or assets and allows you to interact with your entities.
• Widgets are the building blocks of dashboards. OpenGate has a huge catalog that includes customizable tables, maps, charts, gauges, HMIs, and more — each designed to present data in a specific format.

📌 Note: Workspaces can be shared with other users in your organization. This allows administrators to create curated views and make them available to operators, analysts, or any users group.

🏗️ Creating a Workspace and Dashboard

Let’s continue with our ongoing warehouse scenario. We’ve already provisioned sensors and collected data. Now, we’ll create a workspace and dashboard to visualize that information.

🗃️ Step 1: Create a Workspace

1. Go to OpenGate Management > Workspaces, you can open in new window
2. Click on New Workspace

3. Now fill the information required and click on “OK”:
   • Name: Use Warehouse Monitoring
   • Description: Enter something if you like, for example: Our awesome IoT solution
   • Choose an icon: OpenGate has a huge predefined library, use ogicon-industrial
   • Visualization: Check “Show at home” to be able to see this workspace on the home screen.
   • Banner: It is possible to redefine the banner or background image, keep it blank for this tutorial

👏 Done! OpenGate redirects you directly to the new workspace view

📊 Step 2: Create a Dashboard

Let’s continue. Inside the workspace, you just need to click on “+ NEW DASHBOARD”

Now, we need to configure our dashboard. For this tutorial we fill the following data.

• Name: use Warehouse Overview
• Icon: choose one, for example ogicon-WD
• Image: Use default or something like this: 🖼️warehouse.jpg

Click on “OK” and your new dashboard is created

🧩 Adding Widgets

Empty right? Let’s add two basic widgets to visualize our data. click on “Add Widget” and check the catalog

📋 Entities list widget

This widget is a table which shows entities in table format we will use this to show all our entities and its more relevant data.

1. Click Add Widget and look for Entities List

2. Click on “Add” and the widget configuration appears. Let’s configure our new widget.

3. For this tutorial, we will focus in the warehouse rooms, so fill the following:

   • SELECT COLUMNS TO ADD: This allows you to indicate what columns you want to see. The information is selected from datastreams list, OpenGate standard and custom, for provision, and collection datastreams. Fill this with: temperature, humidity, presence from our datamodel “warehouse” and provision.device.specificType, provision.device.identifier, provision.asset.identifier from the OpenGate standard data models. You can choose what datastream property show in the table. Check on “Current Value” and click on “+ ADD”
   • PAGINATION: The standard value is 10, change it to 20.

4. Then you will see the columns that the widget will show. Keep it as is, but you can change some things such order, name or apply formaters, we will see this later

5. Save the widget and the widget will be added to the dashboard automatically.

Use the bottom-right arrow icon on the widget to adjust the widget size, and click on “SAVE” icon in the Dashboard toolbar.

🎉 Congratulations you have your first dashboard with one widget!!!

🗺️ Map Widget

Let’s continue by adding a map widget.

1. Like you performed before, click Add Widget and choose Maps The “Maps” widget is another powerful tool that can be configured to show a lot of customizable information of your entities, directly over a geolocated map. For this tutorial, we keep the widget as default. But lets review what the widget will show:

• “provision.device.location”: This marker represents the provision location of a device
• “entity.location”: This marker represents the location collected for a device

2. Save the widget and move it to the right part. Try to achieve this

✅ Finish your work

I know, I know… we did not enter the location for all devices, but you can do it with what you have learned in this tutorial. I give you a clue, you can do it in two ways depending on the information that you want to represent:

1. Use OpenGate Device Emulator, to collect the location of the entities
2. Use EDIT device option, from the menu of each entity in the widget table, to provision the location of the entities

Use both if you wish and refresh the dashboard, now you see the map position. Enjoy the Maps widget, move around, CNTRL+SCROLL to zoom in/out, and click on some device to see its information. Look this:

🔍 Applying Filters

We have configured a great dashboard, but we can adjust it to refine the dashboard view. Because we want to use this dashboard as “Warehouse Overview”, we’ll create a basic filter to only see our warehouse rooms information.

🧮 Filter the “Entities list” widget

Remember, these entities are assets. The entity type is recorded in OpenGate standard datamodel using ‘resourceType’ datastream. So that, lets reconfigure our widget to apply a filter:

1. Open the widget configuration from the widget menu:

2. Go to the “ADVANCED” tab and click on “Private filter”

3. Choose resourceType and click on “ADD CONDITION”
   

4. Choose “eq” (that means equals) for the condition operator, and fill entity.asset in the value. Click on “APPLY FILTER”

5. Let’s do a couple of things more.

• Add a new column using asset.identifier datastream and choose at. This will create a new column that shows each time some asset information is updated by one of its related devices. Edit it and change its name to Last coms.
• Remove columns provision.device.specificType and provision.device.identifier, note that these datastreams are relevant for devices, not for assets, so we can safely remove them from this view!

You should have something like this:

6. Click on “SAVE” to apply the changes. The widget will now display only assets, with the updated column layout

This will ensure that only assets (not devices or other entities) are shown in the dashboard.

🗺️ Do the same with the “Map” widget

Repeat the job with the map widget. All OpenGate widgets have similar configuration options so you know what you need. You should accomplish something like this. Only the information from your assets is visible:

➕ Want more?

Repeat all the process and create another entities List widget filtered to show only devices and change the widget names to achieve this dashboard:

🎨 Applying Formatters

Although this may not be part of this basic tutorial, we think that will be relevant for you to know about this feature… Let’s improve our dashboard to another level of customization using “formatters”. This allows you to customize with all the power of web development and its native technologies HTML, CSS and javascript.

Here you have infinite possibilities so for this tutorial we will do the following to our “WAREHOUSE ROOMS” widget:

1. Format dates: The ISO format is not for everybody. Let’s convert a raw ISO timestamp like 2026-01-01T12:00:00Z into a readable date.
2. Temperature colors: Apply a code color for temperature datastream values
3. Presence indicator: Remark the presence detected

NOTE: We assume that you have knowledge in web development, HTML, CSS and javascript.

📅 1. Format dates

Formatters are both simple to use and incredibly powerful. Let’s start with a formatter code to change date appearance.

1. Open the widget configuration and click on “formatter” on the column ‘Last coms.’

2. Paste the code below, click on “EVALUATE” to check code errors, and “OK” to save your changes

//check if we have a value for the datastream
if (value) { 
	var date = new Date(value);
    if (date=="Invalid Date"){
      //the value is not valid
      cellFormatter.customValue = "---";
    }
    else
    {
      //format dat to the locale string
      cellFormatter.customValue = date.toLocaleString();
    }
}

🌡️ 2. Temperature colors

Repeat the process with the column Temperature and the code below

if (value) { //If value exists
  if (value < 18){
    // Cold
    cellFormatter.style = 'color:lightblue;'; 
  }else if (value >= 18 && value < 22 ){
    // ideal temperature... using custom green color
    cellFormatter.style='color:#20BB38FF;';
  }else if (value >= 22){ 
    //more than 22 ºC is hot...
    cellFormatter.style='color:red;';
  }else{
    //grey
    cellFormatter.style='color:#808080;';
  }
}

👁️ 3. Presence indicator

One more time. Edit column Presence

if (value === true) {
    //You can change the cell value for a custom one and even use emojis 🎉🎉!!
    cellFormatter.style = 'color:green;';
    cellFormatter.customValue = "<strong title='TRUE'>TRUE 🟢</strong>";
}  else {cellFormatter.customValue = "<span title='FALSE'>FALSE 🔳</span>";cellFormatter.style = 'color:grey;';}

🎉 4. Check the result

Click on “SAVE” on the widget configuration and check the result… Pretty powerful, right?

⚙️ Operations in OpenGate

Once your dashboard is set up and filtered, it’s time to take action. OpenGate allows you to send operations to your devices directly from the dashboard using the Operations feature. But first, we need to configure a few operations to make them available.

📚 Understanding the Operations

Before sending any operation, it’s important to understand how operations are defined and managed in OpenGate:

• Operations are predefined actions that can be executed on entities (devices, assets, etc.).
• Each operation includes:
  • A name and description and target entity types
  • GUI Form definition and STEPS
  • Optional parameters
• OpenGate offers a predefined Operations catalog out-of-the-box for: Reboot equipments, power on/off devices, refresh_info, refresh_presence, firmware update through bundles, and more.
• You can create your own custom operations, but we do not deeper in this basic tutorial.

🛠️ Configuring a Sample Operation: REBOOT

Let’s create a simple operation to reboot a device. This Operation already exists on the OpenGate Operations catalog and it is a good approach to learn how operations work.

1. Create the REBOOT Operation

1. Go to OpenGate Management > Operations and click on “+ Create Operation”.

2. Click Clone from catalog and choose REBOOT_EQUIPMENT. Keep data as default and click on next

   • Name: REBOOT_EQUIPMENT
   • Title: Reboot Equipment

3. Check Operation configuration.

   • JSON Schema, Another powerful tool: OpenGate allows you to define custom Operation Wizards using JSON Schema forms.
   • Additionally, the “Operations” allows you to define STEPS. Because some actions may require a complex workflow in your devices, we design this method so you can notify the platform from the device when each step is completed or failed and then register the full operation traceability on the platfom. For this tutorial, because we used the “clone the operation” before, this operation has only one step and you cannot modify it.

4. Preview your JSON Schema Operations form:

   • You can click on “PREVIEW” tab to check how your form will be displayed and even test it. Just to let you know, this operation has only an input field component, to choose between “hardware” or “software” reboot type to be send to the device.

5. Create your operation and check the confirmation message on the summary

Perfect! you have created your first Operation successfully. Let’s launch it, right?

2. Testing with the OpenGate Device Emulator:

Do you remember our OpenGate Device Emulator?? We can use it to emulate also operations responses from devices and test our operations workflow.

1. Open the OpenGate Device Emulator in a new window
2. Select one of our devices, for example the device [YourPrefix]-ps-001. and go to the “OPERATIONS” tab

3. Configure the responses. Fill the following information and click on “SAVE”:

   • Choose Operation: REBOOT_EQUIPMENT
   • Check the “ENABLE RESPONSE” option. This indicates if Device Emulator must respond or not
   • Copy/paste the code below to respond the operation request:

   operaResponse = {
   "operation": {
      "response": {
         "name": "REBOOT_EQUIPMENT",
         "timestamp": Date.now(),
         "resultDescription": "Success",
         "steps": [
         {
            "timestamp": Date.now(),
            "description": "The system will be rebooted",
            "name": "REBOOT_EQUIPMENT",
            "result": "SUCCESSFUL"
         }
         ],
         "resultCode": "SUCCESSFUL",
         "id": operaRequest.operation.request.id
      }
   },
   "version": "1.0"
   };

4. Now keep open the OpenGate Device Emulator log and return to our dashboard “Warehouse Overview”

🚀 Sending an Operation from the Dashboard

Now let’s send the operation from your dashboard and validate the result.

1. click on “EXECUTE OPERATION” in the device [yourPrefix]-ps-001 menu. This opens the Operation wizard

2. Choose our operation Reboot Equipment and click on “Next” (You can execute it directly, but then the predefined “HARDWARE” reset is send)

3. Choose SOFTWARE just to play with the component. There are more additional and powerful options in the wizard (you can review them with “next” button):

• SCHEDULED: This allows you to decide when to execute the operation, Now, Later after some minutes or periodically. This last option converts this operation in a “Task” we will not cover this in this tutorial.
• ADVANCED OPTIONS: Here you can configure Operation and Execution timeouts for this operation and even adjust optional parameters if the operation accept more.

But for this tutorial, we just keep them as default and click on the “EXECUTE”

4. The summary indicates that the operation has been launched

🧪 Monitoring Operation Results

After sending an operation, you can view its execution status and result.

1. Check Opengate Device Emulator log

Here you can see how the operation has been attended and processed by our emulator and the response is sent successfully to OpenGate

This confirms that our operation has been launched from the dashboard and then the device (our Device Emulator) respond to OpenGate.

2. Review in OSS - Operations Support System:

The final step is to check that the response is properly collected in OpenGate, but how?

Well, there is another more tool for you, “Operations Support System”, that allows you to check all your Operation executions. Of course, you can build your own dashboard using operations widgets that you will find on the catalog, but we want to offer you an out-of-the-box solution for operations management.

1. Go to the Operations Support System section of OpenGate, open in new window.

2. Click on “Operations List” and locate our operation (so easy, you should just have one…). Because the operation is finished, Click on the menu and Device Execution List - Show history.

3. Click on Execution Details to inspect the execution traceability and result

4. Let’s review the Execution Details panel

   • From this panel you can check the summary result of the execution. Look the description “Success” that we coding in our OpenGate Device Emulator
   • Additionally, You can review the Steps tab, to check the times and result (remember that this operation only has one step)
   • Parameters tab shows what the user send to the device, we selected “software” during the wizard.
   • The last tab, Timing, shows a timeline with the execution times

💡 What’s Next?

This was a basic operation and response flow, but OpenGate supports much more. You can:

• Send configuration updates to your devices
• Trigger actuators (e.g., open/close valves)
• Perform FOTA (Firmware Over-The-Air) upgrades
• Or any other action your devices support!

Operations are a powerful way to turn your dashboards into control centers. Ready to build your next one?

🚦 Easy Mode Rules in OpenGate

Welcome to one of the most powerful features in OpenGate: the Rules Engine. This system allows you to automate responses based on incoming data, enabling smarter and more efficient workflows across your IoT ecosystem.

There are two rule-building modes available:

• Easy Mode: A simplified, intuitive interface for quick rule creation. This allows you to create rules using an assisted interface.
• Advanced Mode: A flexible editor for complex logic and custom flows. Use the power of JavaScript to configure your rule.

In this tutorial, we’ll focus on Easy Mode, using a practical example from our warehouse environment.

🛠️ Creating an Easy Rule

for this tutorial, we will consider that we want to monitor the temperature levels of our warehouse. We’ll create a rule that triggers an alarm when the temperature reaches 25°C or more. The alarm message will be:
“It’s hot!”

Go to OpenGate Management > Rules and click Create new rule

STEP 1: Rule Administration data

This is the first step of the Rules wizard. As the other wizards that we’ve achieve together, the first step allows you to set the basic info of the rule

• New Rule: We will choose “NEW RULE” but as with the Operations, OpenGate offers you the possibility to clone an existing rule or use one from the product catalog. Because is our first rule, lets configure a new one together. Choose New Rule
• Name: Use TemperatureRule
• Description: It is optional but use Check temperature threshold
• Rule mode: for this tutorial, we will use Easy Mode
• Rule Type: We could configure rules to check “Operation Result” when are collected into de platform after perform any OpenGate Operation. For this tutorial, we are configuring a “Datastream Colection” rule. We want to check the received events. Choose DATASTREAM COLLECTION

STEP 2: Rule Definition

Here we are goint to define some things: 1. DATASTREAMS: We need to define the datastreams that we use in the rule. Do you see the two buttons on the top part of the wizard? We will use them to configure our rule basis

Choose temperature from our “warehose” datamodel and check the Prefilter option. This rule only triggers when this datastream is received in any entity collection envent. This increase performance.

2. PARAMETERS: This allows you to parametrize de values o the rule. If your rule is so complex, it is usefull to have all parameters together to check or edit them. This is not mandatory, but recommended.

3. RULE CONDITIONS: Let’s configure our easy rule. As you can see you have some conditional tools available to configure the logic for the trigger of the rule. This is the configuration of the condition to the rule results true, and so, execute the actions that we will configure later. For this demo, we want to triger an alarm when any room facility register a temperature greater or equals 25ºC. To accomplish this, we need to do the following:

• Add a condition for resourceType with the operator eq to asset. This means that we only generate an alarm when the asset receive the value.
• Add another condition with our datastream temperature from “warehouse” datamodel, and choose the opreator gte and then, choose our parameter.
• Ensure that the GROUP condition is AND

4. DO ACTIONS: Now we will decide what the rule must do when the condition occurs. So let’s indicate tha we want to OPEN ALARM by clicking on “NEW ACTION”. Then configure the following:

• Alarm name: It’s hot!
• Alarm Description: temperature excedes the configured param
• Severity: INFORMATIVE
• Priority: MEDIUM
• Ensures that the check is activated, if not, this action will never execute.

5. Save your changes Click on “EXECUTE” to activate the rule 👏 Congratulations, you create your first rule!!

🧪 Testing the Rule

So easy right? Let’s verify that the rule behaves as expected.

1. Go to the “alarms list” As always, you have a predefined solution to check your triggered alarms, but you can create your own dasboards. Let’s try the predefined “Alarms List”. Just go to “Operations Support System > Alarms”, and open it in a new window

2. Send a normal value Use the OpenGate Device Emulator to send a 21 value for temperature datastream, for the device [YourPrefix]-ws-stemp02, you know how. Return to the Alarms List. Nothing happens, why? because we are under our threshold

3. Now enter a value above our threshold Use again the “Opengate Device Emulator” to collect, this time, a 27 value Return to the Alarms List and check what happens now

🚨 As you can see a new alarm appears. This alarm is triggered because when you collected the 27 value for temperature, this value is populated to the asset and is above the alarm configured threshold.

🚨 Managing Alarms

Trigger alarms to aumomatically detect what is happening on your solution is great but if something is detected is for you to do something, right? Now we understand how alarms works and how are generated, let’s explore the available options using the alarm we just triggered.

From the alarms list page, each alarm has its own menu to operate with the alarm:

Review the alarm details

Click on the alarm menu, then “Alarm detail”, to check all the alarm information

Here you can see all the history related with the alarm. The most relevant information is:

• Openning time: The timestampt when the alarm is triggered by the rules engine
• Status: The current status of the Alarm (OPEN or CLOSED)
• Clossure time: Timestampt if the status is CLOSED
• EntityID: The entityID that triggers the alarm
• Rule Name: The name of the rule that triggers the alarm
• Rule Description: The description of the rule. this ussually helps for better understanding
• Severity: INFORMATIVE, as configured for this rule’s action
• Alarm timeline: This view show different actions (available also from the alarm menu if you look the previous image in detail)

Attend the alarm

It is possible to attend the alarm to register some work by the users. By clicking on “Attend Alarm” option, you will be able to introduce some notes and so it keeps registered with the alarm information.

Close the alarm

You can close directly the alarm without attend it before. In any case, you can add some notes related with the alarm closure proccess.

🧪 Analytics and Datalab

🚀 What is Jupyter Lab and Why Is It Useful?

OpenGate comes with Jupyter Lab pre-installed and ready to use — no setup required.
You can access it directly from the Analytics section in the Web Console.

Jupyter Lab is an interactive development environment that lets you:

• Create and run jupyter notebooks with Python code
• Visualize data in real time
• Document your analysis step by step
• Combine text, code, and graphics in a single workspace

It’s perfect for exploratory data analysis, rapid prototyping, and technical documentation.

Once it’s open, you will access to the OpenGate Jupyter Lab interface to work with your notebooks:

🛠️ OpenGate Data: Your Python Superpower

The data generated or the results of your experiments with python can be reinjected in OpenGate!! but how? Easy… Using the opengate-data library…

The opengate-data library is a Python package designed to integrate OpenGate into your Python projects which is available by default on your OpenGate Data Lab instance.
It provides tools to interact with OpenGate’s APIs efficiently and intuitively.

Key features include:

• 🔍 Reading data from OpenGate
• ✍️ Writing data back to OpenGate
• 🧬 Automatic conversion to pandas.DataFrame

This means you can leverage the full power of pandas for advanced data manipulation, filtering, and visualization within your notebooks.

🖥️ Install it locally

Do you want to play locally? Installation is simple:

pip install opengate-data

📊 Why Is pandas So Powerful?

pandas is the go-to library for data analysis in Python.
The fact that opengate-data works seamlessly with DataFrame objects unlocks a wide range of possibilities:

• Filter data by time, entity, or value
• Group and summarize information
• Create visualizations using matplotlib, seaborn, or other tools
• Export to CSV, Excel, or databases

💡 This transforms OpenGate from a data collection platform into a full-fledged analytics engine.

✅ What You’ve Learned

With this final tutorial, you’ve completed the full journey through OpenGate:

• From accessing the platform and navigating the console
• To modeling, provisioning, and visualizing data
• Through rules, operations, and connectors
• And finally, to advanced analytics using notebooks and Python

🎓 You now have everything you need to build end-to-end IoT solutions — from device to insight.

Introduction to Management in OpenGate REST API

The Management section of the OpenGate REST API, an essential part of Amplía Soluciones’ OpenGate IoT platform, is designed to facilitate comprehensive and efficient management of IoT resources and configurations. It encompasses a broad array of functionalities that cater to various aspects of IoT management:

• Organizations: This is the core where you can manage Channels and Entities, including entity types, statuses, devices, subscriptions, and more. It provides tools for Bulk Provisioning, both classic and using provision functions with a JavaScript API, along with Rules management including a default rules catalog.

• Work Groups: Critical for team collaboration, it includes managing work group relations, geo-clusters, bundles, and users, along with user login and profile settings.

• Geo-Areas, Data Models, and Tags: These features allow for geo-spatial organization, data structuring, and categorization of IoT elements.

• Tickets: Handle customer service and operational issues efficiently.

• Manufacturers & Models: Manage and catalog various manufacturers and their respective models.

• Usage Plans and Certificates: Essential for securing and governing the use of IoT devices.

• Mobile Operators: This includes management of APNs and GGSNs, crucial for cellular network-based IoT devices.

This section of the API is geared towards providing administrators and developers with the tools needed for detailed and organized management of IoT infrastructure and services, ensuring smooth operation and effective utilization of IoT resources.

Index of OpenGate management APIs

• Organizations
  • Channels - Device Groups
    • Entities
      • Entity types & statuses
      • Devices
      • Subscriptions
      • Subscribers
      • Assets
      • Bulk provisioning
        • Classic bulk provisioning
        • Provision functions for bulk provisioning
          • JavaScript API
          • Main Module
          • Entities Utils
          • Actions Utils
          • V8 Utils API
          • Error API
    • Rules
      • Advanced Rules Mode
      • Executing Actions
      • Alarm utils
      • Notifications utils
      • Operation utils
      • Provision utils
      • Datastreams and values
      • Dates manipulation
      • Cypher utils
      • Utils
      • Default rules catalog
  • Work groups
    • Work groups relations
    • Geo-clusters
    • Users
      • User login
      • User profiles
    • Software and configuration bundles
  • Geo-areas
  • Manufacturers & Models
    • Manufacturers
    • Models
  • Data models
    • Default schemas
    • Default data models
  • Tags
  • Tickets
• Manufacturer & Model Catalog
  • Manufacturers catalog API Spec
  • Models catalog API Spec
• Usage plans
• Certificates
• Mobile operators
  • APN
  • GGSN