Industry 5.0: what changes after Industry 4.0

Industry 5.0: what changes after Industry 4.0

Connecting a machine to a network makes data collection possible. Using that data to reduce waste, support operators and keep a process under control requires a broader engineering effort. This is where Industry 5.0 becomes relevant to teams developing firmware, embedded systems and industrial software.

What Industry 5.0 adds to Industry 4.0

The European Commission describes Industry 5.0 through three priorities: human centricity, sustainability and resilience. It builds on the technological foundations of Industry 4.0 while also considering workers’ wellbeing and the production system’s ability to cope with change and disruption.

For an engineering team, this changes the questions asked at the start of a project. Alongside deciding which data to collect and how to connect equipment, the team needs to define the decisions operators will make, how resource use will be measured and what happens during a failure or connection loss. Sensors, collaborative robots and artificial intelligence are tools to select according to those goals.

A practical example: energy use and production line status

Consider an illustrative engineering scenario: a production line has an energy meter and a controller exposing machine status and part counts. A gateway acquires the readings, adds timestamps and sends them to a monitoring platform. The dashboard lets the team compare production, downtime and energy use over the same interval.

The usefulness of this system depends on the details. Firmware needs to detect invalid readings, distinguish zero from missing data and retain samples locally during a network interruption. Once connectivity returns, transmission must let the backend reconstruct the sequence without counting the same sample twice. Buffer capacity and behaviour when storage fills up need to be defined before installation.

This observation layer can be added without assigning it responsibility for machine safety control. The architecture must define the separation between monitoring, operational commands and safety functions, together with access permissions and update procedures.

Illustration of an operator, a robotic arm and connected embedded systems
An illustration of people, automation and embedded systems working together; it does not depict a customer installation or measured results.

Measuring benefits in context

Total energy consumption can be misleading on its own: a line producing fewer parts might consume less without becoming more efficient. Energy per conforming part is a useful indicator alongside production volume, rejected parts, downtime and operating conditions. For example, 100 kWh and 500 conforming parts give 0.2 kWh per part. This is a hypothetical calculation, not a promised saving.

Comparing performance before and after a change requires comparable production conditions and a check for gaps in the measurements. The interface matters too: an alarm should explain what happened, when it happened and what needs checking. An HMI designed around the operator can present this information at the machine, while a web dashboard provides a view across several lines.

Industry 5.0 and Italy’s investment incentives

Industry 5.0 is an approach to industrial transformation. Italy’s Transizione 5.0 programme is a specific incentive scheme with its own rules and deadlines. As checked on 22 September 2026, the Ministry of Enterprises and Made in Italy lists applications for the previous Transizione 5.0 programme as closed and points to the new Transizione 5.0 – Iperammortamento programme. Check the relevant official pages for requirements, procedures and availability: installing sensors or a dashboard does not, by itself, establish eligibility.

Where Silicon LogiX can contribute

Silicon LogiX can develop the system’s engineering components: firmware for data acquisition and device management, IoT connectivity and gateway integration, operator interfaces and software for presenting measurements and connecting them to business processes. Protocol and platform choices start with the existing equipment and maintenance constraints.

An initial project can focus on one machine and one concrete decision, such as identifying unusual energy use during downtime. The team defines the required data, verifies collection during network outages and agrees acceptance criteria with the people who will use the system. Tell us about your equipment and the outcome you need to measure: that provides a practical starting point for assessing the project.

Working on a similar problem?

IoT and connected-device work

Practical patterns for connected devices, web UIs, MQTT, Wi-Fi and network protocols.

Related project: SLX Field Device Manager View service Discuss your project Discuss your project

Continue the path

Related resources

IoT and connected-device work

Practical patterns for connected devices, web UIs, MQTT, Wi-Fi and network protocols.

ESP32 local IoT with a web UI

Related deep dive in the Local IoT, ESP32 and connectivity path.

GPS/GNSS in embedded systems

Related deep dive in the Local IoT, ESP32 and connectivity path.

SLX Memory Map Explorer

Visualize memory maps, linker maps and firmware layout for MCU analysis and debugging.

Back to English news