1. Wi-Fi 7 Targets High-Bandwidth Robotic Applications

Wi-Fi 7 is emerging as a response to increasing data volumes in robotics, driven by vision systems andsensor fusion, . Higher throughput and handling of dense environments make it attractive for data-heavy workloads. Wi-Fi 7 alone does not guarantee deterministic behaviour. Careful network design and segmentation remain essential when latency and availability are critical.

What this requires

• Thoughtful network planning for dense environments
• Separation of safety-critical and non-critical traffic
• Hybrid architectures combining wired backbones and wireless access

2. Ethernet Remains the Deterministic Backbone

Despite advances in wireless technologies, Ethernet continues to be the backbone of industrial and robotic connectivity. Predictable latency, mature technology and well-understood behaviour make it suitable for time-critical communication.

What this requires

• Clear definition of time-critical communication paths
• Proper segmentation between control, data and management traffic
• Long-term lifecycle and availability planning

3. Wi-Fi HaLow Addresses Range and Power Constraints

Wi-Fi HaLow is gaining attention for applications where traditional Wi-Fi struggles: large indoor spaces, mixed indoor-outdoor environments and power-constrained devices. Its extended range and improved penetration enable new industrial solutions.

While bandwidth is lower than conventional Wi-Fi, it offers a compelling compromise between range, power consumption and data throughput.

What this requires

• Clear understanding of bandwidth vs range trade-offs
• Application-driven selection of wireless technologies
• Integration with existing network infrastructure

4. Industrial Ethernet Continues to Define Safety and Reliability

Industrial Ethernet remains central to safety-relevant and mission-critical robotics applications. Deterministic communication, robustness and compliance with industrial standards make them difficult to replace in demanding environments.

Industrial Ethernet is increasingly combined with wireless technologies in layered architectures.

What this requires

• Alignment with industrial standards and certification paths
• Coexistence strategies for wired and wireless networks
• Clear responsibility for network configuration and maintenance

5. Network Management and Coexistence Become Bottlenecks

As robots integrate multiple radios and operate in shared spectrum environments, managing coexistence, roaming behaviour and quality of service becomes a system-level challenge. Connectivity performance is no longer defined by a single interface, but by the behaviour of the entire network.

What this requires

• Centralised monitoring and diagnostics
• Defined policies for roaming and prioritisation
• Early testing under realistic load and interference conditions