Morse Micro adds Wi-Fi HaLow design partner

Morse Micro adds Wi-Fi HaLow design partner

Morse Micro has added Pace Wireless to its partner programme. The move extends architecture, PCB, regulatory, prototyping, and manufacturing support for products built around Wi-Fi HaLow silicon.


IN Brief:

  • Pace Wireless has joined Morse Micro's Wi-Fi HaLow Design Partner Program.
  • Its engineering support covers architecture, hardware, firmware, PCB design, regulatory planning, prototyping, and production management.
  • The addition expands design-to-manufacturing support around Wi-Fi HaLow rather than introducing another radio product.

Morse Micro has added Chicago-based Pace Wireless to its Wi-Fi HaLow Design Partner Program, expanding the engineering support available to companies developing products around Morse Micro silicon and reference platforms. Pace covers system architecture, hardware, firmware, PCB design, regulatory planning, prototyping, design for manufacture, and production management.

The programme links product developers with specialist design houses and system integrators rather than adding another radio component to Morse Micro’s portfolio. That distinction is practical because selecting a wireless chipset is only the first stage of producing a connected device: antenna integration, board layout, enclosure design, firmware, compliance testing, manufacturing, and lifecycle support all affect whether a prototype becomes a repeatable product.

Pace Wireless works from concept definition and proof-of-concept builds through to production preparation. Morse Micro says the company’s leadership team has more than 30 years of product-launch experience, while domestic prototyping through an Illinois manufacturing partner provides a route from validated design to early hardware builds.

Regulatory planning is included early in that process. Radio output, antenna configuration, enclosure construction, firmware behaviour, and board changes can all influence the evidence needed for regional approvals, so decisions made during schematic and mechanical design can affect certification costs months later. Bringing those constraints into the prototype stage reduces the risk of treating compliance as a final test performed after the RF design has effectively been frozen.

Wi-Fi HaLow is based on IEEE 802.11ah and operates in sub-GHz spectrum, giving it a different range and propagation profile from conventional 2.4GHz and 5GHz Wi-Fi. Morse Micro is targeting industrial IoT, infrastructure, utilities, security, agriculture, and other distributed applications where coverage, penetration, and power consumption can be more important than the peak throughput associated with mainstream wireless LANs.

The company’s current silicon includes the MM6108 and newer MM8108 families. A design partner therefore has to integrate the radio with the rest of the embedded system, including host processing, power conversion, antennas, sensor interfaces, firmware, mechanical constraints, and the application software that determines how the network connection is actually used.

Manufacturing adds another layer. A radio design that performs well on a hand-built prototype can change when PCB materials, component tolerances, antenna placement, connectors, assembly processes, or approved component substitutions are introduced at scale. Design-for-manufacture work has to preserve RF performance while giving the production line sensible test access and repeatable assembly steps.

Pace’s inclusion in the programme gives customers another route through that work rather than altering the Wi-Fi HaLow standard itself. The company joins Gateworks, VPI Technology, and CA Engineering, each offering engineering support around Morse Micro’s chipsets and development platforms.

The growing partner list also indicates where adoption work has shifted. Wi-Fi HaLow silicon and evaluation hardware are already available, and the harder problem for many commercial users is converting those components into a product with an antenna, enclosure, regulatory file, manufacturing process, and support model that can survive beyond the first demonstration.

That is especially relevant in industrial deployments, where products may be installed for years and where changing a radio module or antenna late in the design can trigger new validation work. Engineers need to understand availability, certification, firmware maintenance, environmental performance, and test strategy alongside link budget and data rate.

Morse Micro’s Design Partner Program is intended to formalise that engineering ecosystem. Pace Wireless adds another North American team able to take a HaLow design from architecture through prototyping and manufacturing preparation, giving customers an alternative to building every RF, embedded, compliance, and production capability internally.

The announcement is therefore less about a new wireless specification than about the infrastructure surrounding an existing one. As Wi-Fi HaLow moves into more industrial and infrastructure products, the depth of that design and manufacturing support will help determine whether the technology remains concentrated in specialist projects or becomes a routine option for long-range IoT connectivity.


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