With industry’s highest linear power and power efficiency, Anokiwave’s newest ICs are now available to enable small form factor, low power, and high performance mmW 5G radios.

    Boston, MA April 25, 2023: Anokiwave, Inc., the leader in highly integrated, cost-effective silicon-based IC solutions for the millimeter-wave (mmW) and active antenna markets, today announced the expansion of its 4th generation high efficiency multi-band silicon IC family into the n260 and n259 bands. The new IC family pushes the levels of performance and cost to a point where network operators can start to accelerate the builds of energy efficient, low cost, and small form factor mmW 5G radios, for every 3GPP FR2 band.

    The latest ICs in this family include:

    The two ICs are designed to work together as a complete IF to mmW solution and to enable a 3GPP compliant n260/n259 signal chain, with industry leading linear power, low DC power and noise figure, high instantaneous bandwidth of up to 1.4GHz, and support for ultra-low EVM. The ICs also support 802.11ac and 802.11ax waveforms for private wireless networks.

    The 3GPP n260 and n259 bands provide the largest contiguous spectrum available for 5G wireless service and are planned to be used in densely urban areas requiring ultra-high throughput and capacity. These new ICs paired with Anokiwave’s already released 24 to 30 GHz ICs (AWMF-0221 and AWMF-0210) provide OEMs with the option to develop and provide single or multi-band mmW 5G radios covering all 5G bands from 24 to 43.5 GHz.

    The new ICs offer some unique features with system level benefits:

    “These new ICs extend the innovations of our mmW Gen-4 silicon ICs to the higher n260 and n259 bands,” said Alastair Upton, Anokiwave Chief Strategy Officer. “It is a very timely product release as network operators worldwide are starting to build 5G networks using these higher bands. With the high network efficiency and low cost of these ICs, operators can now truly achieve the vision of commercially viable mmW 5G networks.”