5g
Factories of the Future
Media & Entertainment
Smart Cities
Smart Energy
Smart Ports
SME Opportunities
Societal Impacts
Technology Development
Telecoms Providers
5G CAM
5G Automotive
5G CAM KPIs
5G CAM Standardisation
5G Corridors
5G Multimodal Connectivity
5G Transport Network
Artificial Intelligence & Machine Learning
Artificial Intelligence & Machine Learning in big data
Artificial Intelligence & Machine Learning technologies
Big data
Big data algorithms
Big data analytics
Collaborative Classification and Models
Business Models, Process Improvement, Contract Management, KPIs and Benchmarking Indexes
Collaboration Risk and Value Sharing
Collaborative Planning and Synchromodality
Customs & Regulatory Compliance
Environmental Performance Management
Logistics Optimisation
Stock Optimisation
Supply Chain Corrective and Preventive Actions (CAPA)
Supply Chain Financing
Supply Chain Visibility
Common Information Objects
Booking
Customs Declarations
Transport Service Description
Transport Status
Waybills
Computing and Processing
Big Data Management and Analytics
Cloud
Edge
Fog
Knowledge Graphs
Machine Learning
MIST
Stream Processing
Connectivity
Architecture
Blockchain
Connectivity Interfaces
Technologies (Bluetooth, Ethernet, Wifi)
Data Management, Simulation and Dashboards
Dashboards
Data Fusion
Data Governance, Integrity, Quality Management and Harmonization
Event Handling
Open Data
Simulation
Statistics and Key Performance Indicators (KPIs)
Data market
Data ecosystem
Data marketplace
Data Platform
Data Providers
Devices
IoT Controllers
IoT Gateways
IoT Sensors
Tracking Sensors
Digitisation Frameworks
Control Towers
Data Pipelines
e-Freight
e-Maritime
National Single Windows
Port Community Systems
Federation
Data Federation
Platform Federation
Industrial IoT Sectors
Rail Sector Active Predictive Maintenance
Interoperability
Data interoperability
Data interoperability mechanisms
Interoperability solutions
Platform interoperability
IoT Secuirty, Privacy and Safety Systems
PKI Technology
Privacy-preservation
Data privacy preserving technologies
Privacy preserving technologies
Project Results
5G-SOLUTIONS Deliverables
5G-SOLUTIONS Publications
CHARIOT Capacity Building and Trainings
CHARIOT Deliverables
CHARIOT Publications
SELIS Deliverables
SELIS Publications and Press Releases
Project Results - 5g Routes
5G-ROUTES Deliverables
5G-ROUTES Innovation
5G-ROUTES Publications
Project Results - TRUSTS
TRUSTS Deliverable
TRUSTS Publications
Safety, Security and Privacy Systems
Access Management
Coordinated Border Management
Information Security
International Organisations
Risk Assessment and Management
Risk Management
Safety and Security Assessment
Source Code Analysis
Sectors and Stakeholders
Airports and Air Transport
Banks, investors and other funding providers
Custom Authorities
Facilities, Warehouses
Freight Forwarders
Inland Waterways
Multimodal Operators
Ports and Terminals
Railway
Retailers
Road Transport
Shippers
Shipping
Smart Buildings
Trusties and other Intermediary Organizations
Urban and Countryside Logistics
Urban Logistics
Sectors and Stakeholders - TRUSTS
Audit & Law firms
Corporate offices
Enterprises
Financial Institutions
Telecommunications
Security
Secured Data
Secured Infrastructure
Secured Platform
Sovereignty
Data sovereignty
Standards
Good Distribution Practices
International data standards
International Organization for Standardization (ISO)
UN/CEFACT
World Customs Organization (WCO)
Supply Chain Management
Business Models, Process Improvement, Contract Management, KPIs and Benchmarking Indexes
Risk Management
Risk-Based Controls
Screening and tracking
Supervision Approach
Technologies
5g
Agile Deployment, Configuration Management
Business Applications
Business Integration Patterns, Publish-Subscribe
Cloud Technologies/Computing, Services Virtualisation
Cognitive
Community Node Platform and Application Monitoring
Connectivity Technologies (Interfaces and Block Chain)
Hybrid S/T Communication and Navigation Platforms
IoT (Sensors, platforms)
Mobile
Physical Internet (PI)
Public key infrastructure (PKI)
Radio-frequency identification (RFID)

Connectivity Interfaces

How IoT Works – Part 4: User Interface
Anni Junnila 09/08/2018 00:00:00

This article is the fourth and final part of our “How IoT Works” series, in which we’ll cover the key elements of IoT in a simple, understandable way.


Internet of Things (IoT) solutions typically consist of four fundamental elements:

1.Sensors

2.Connectivity

3.Data Processing

4.User Interface


In this article, we’ll concentrate on the last element: user interface. Check out our previous articles explaining sensors, connectivity, and data processing.

 

What Is a User Interface?

In the previous articles we have covered how data is collected by sensor devices, sent to a cloud service via a network solution, and transformed into useful information. The last thing we need to do is to deliver the information to the end user. This is done via user interface (UI).


The user interface consists of the features by which a user interacts with a computer system. This includes screens, pages, buttons, icons, forms, etc. The most obvious examples of user interfaces are softwares and applications on computers and smartphones.


A user interface doesn’t necessarily require a screen, however. For example, a TV remote has a user interface that consists of various buttons, and devices such as Amazon Echo can be controlled with voice commands.


A term that relates closely to the user interface is the user experience (UX). The difference between the two is that, while UI has to do with the things a user actually sees and interacts with, UX is the overall experience a user has with a product. It includes the website, application, packaging of hardware, installation, etc. UX might not even be about your UI design.


Ways to Interact with an IoT Solution

There are many ways by which a user can interact with an IoT solution. Again, as we saw with sensor devices and connectivity, the choice depends on the use case. Here, we’ll take a look at some of the most usual options.

Receiving Automatic Notifications
The most usual case in IoT applications is that we want to receive notifications or alerts if something unusual happens. For example, if a manufacturing machine’s temperature exceeds a threshold limit, we would like to get notified about that. The information could be delivered via email, SMS, phone call, or push notification.

Monitoring Information Proactively
We might want to be able to monitor information proactively. For example, if we had an asset tracking solution keeping track of our vehicles, we might want to monitor the vehicles’ location even if nothing unusual happens. We could use a mobile or computer application for monitoring the information.

Controlling the System Remotely
The user interface can also allow the user to control the IoT system remotely. For example, the user could adjust lights or turn off heating via mobile application. This could also be done automatically by the application itself according to the guidelines given to it.

UI Considerations for IoT
It is a challenge to build an intuitive UI (and UX) for one app alone, but IoT applications take the complexity to a whole new level. Let’s take a look at some of the issues we have to take into account when designing UIs for IoT.

Connectivity

As explained in our earlier articles, there are different approaches to how often data is sent to the cloud (and also how often it is processed). This needs to be considered when designing the user interface. For example, if we had a location tracker sending information to the cloud every three hours, the UI should inform the user clearly that it’s not real-time information that he/she sees. The UI could let the user know “Last message received 2 hours ago – next message expected in 1 hour”, for example.

Physical UI
We should think about whether we need a physical user interface on our IoT device. In some applications this can be essential. For example, if we had smart lights in our home, we would want to be able to use them even if the WiFi went down. However, physical UIs are often very limited for aesthetic reasons, and also because we want to extend the battery life of our IoT devices. Physical UI could also be as simple as a small LED light on an IoT sensor device to tell the user that the device is on.

Simplicity
It is important to deliver the information to the user in the simplest way possible. Furthermore, the information processed from IoT data should be tailored to the user’s specific needs. It would be a good idea to limit information access for different user groups and show a specific user only what he/she need to see. This makes it easier for the user to digest the information the IoT system provides. Also, visualization makes the information easier to understand.

Performance
Even with efficient data processing, the amount of information presented in the user interface can be massive. This has to be taken into account when designing the UI, because otherwise the performance of the UI might not scale for larger usage. Graphs are a great way to present large amount of data in a meaningful way, and they also help with the performance of the UI. Also, if a long list of events or messages needs to be shown in the UI, usually only a part of the data is loaded to be shown at a time (pagination).

Summary

Our “How IoT Works” series is coming to an end, but let’s take one more example that covers the whole process.


Let’s imagine we are dealing with the grocery cold chain. We want to make sure our groceries are kept in a suitable temperature, and we also want to track the location of the truck transporting the groceries. The steps (1–4) of our IoT workflow are visualized below.


How IoT Works – Summary – Trackinno Blog


First, we collect data about the temperature and the location with our sensor devices (step 1). After that we use a network solution to send the data to a cloud service (step 2), where the data is transformed into useful information via data processing (step 3). Finally, the information is delivered to the end user via user interface (step 4).


We hope you have enjoyed our “How IoT Works” series!


P.S. If you enjoyed what you read, consider sharing it!
 

Reference Link

Attached Documents

The “CHARIOT IoT Search Index” aims to provide a web location where publications, articles, and relevant documents can be centralized hosted in a well-structured and easily accessed way.

Tags

Contact Us
Enter Text
Contact our department
123movie