IN Brief:
- Keysight has joined the Verizon 6G Innovation Forum as an independent design, emulation, and test specialist.
- Work covers pre-standard spectrum, integrated sensing and communications, AI-native networks, digital twins, and edge applications.
- The programme is intended to connect experimental systems with repeatable measurement and future 3GPP and ITU standards work.
Keysight Technologies has joined the Verizon 6G Innovation Forum, adding independent design, emulation, measurement and test capability to a programme examining wireless technologies before the final 6G standards are defined.
The forum brings together operators, network-equipment manufacturers, semiconductor companies, cloud providers, device developers and test suppliers. Its areas of interest include new spectrum bands and bandwidths, AI-native network concepts, integrated sensing and communications, digital twins, advanced wearables and edge applications.
Keysight’s role centres on turning those concepts into systems that can be measured consistently. Pre-standard wireless development creates a particular validation problem because implementations are being built while technical requirements are still moving, making comparisons between different prototypes harder than testing against an established compliance specification.
Simulation can narrow the design space, but radio hardware eventually has to reproduce the expected behaviour through real RF chains, antennas, channels and devices. Signal generation, channel emulation, over-the-air measurement and protocol analysis become increasingly important as a concept moves from a model into a physical prototype.
That transition is particularly relevant for integrated sensing and communications, or ISAC. Future radio infrastructure may be used not only to carry user traffic but also to infer information about objects and movement from the radio environment.
The resulting validation problem spans communications and sensing. Performance can depend on waveform behaviour, propagation, antenna geometry, processing algorithms and the physical environment, making a conventional throughput or receiver-sensitivity test insufficient on its own.
Verizon has already highlighted work involving crowd-density sensing and the tracking of drones and vehicles. The forum is also considering demonstrations around robotics, digital twins, artificial intelligence and advanced wearables, with activity connected to the 2028 Los Angeles Olympics identified as one possible proving environment.
Those projects remain pre-standard work. The industry is still moving through 5G-Advanced while 3GPP and the ITU develop the frameworks expected to shape 6G, so experimental hardware cannot yet be evaluated against a final commercial radio specification.
That uncertainty reaches semiconductor designers early. New frequency ranges and larger bandwidths affect RF front ends, antennas, data converters, packaging, clocking and thermal design long before a finished base station or handset reaches formal conformance testing.
Chipset developers need repeatable waveforms and channels to characterise receivers and transmitters, while network-equipment suppliers need methods for comparing algorithms and system behaviour across laboratory and field conditions.
Independent measurement becomes useful when several companies are contributing to the same experiment. A prototype can appear successful under its developer’s own assumptions and instrumentation, but interoperability eventually depends on reproducing the result using common methods.
Keysight already has practical involvement in sensing over cellular infrastructure. In August, a Verizon-based NetSense demonstration used Keysight RF tools in a system that detected and tracked drones through existing 5G infrastructure.
That project remains a 5G implementation, but it illustrates the overlap between communications and environmental sensing now being explored for future networks. Membership of the 6G Innovation Forum expands Keysight’s role from individual trials into a wider pre-standard development environment.
Its contribution can span virtual design and channel work early in a project, then move into RF generation, emulation, over-the-air measurement and troubleshooting as prototypes become physical systems.
For electronics developers, the importance of that workflow is straightforward: standards may still be moving, but silicon and RF hardware development cannot wait until every requirement is frozen. Measurement platforms therefore have to provide enough consistency to compare successive implementations without pretending that the final compliance regime already exists.
Keysight’s original announcement is dated 14 September 2026. The story remains in this run under its approved fallback classification, with the primary-source date retained rather than the later redistribution date attached to the supplied copy.
