Sivers expands global reach for InP lasers
Distribution agreement with WT Microelectronics targets growing demand for AI photonics and optical connectivity.
Sivers Semiconductors has announced a global distribution agreement with WT Microelectronics to expand the market reach of its indium phosphide (InP) lasers and wireless beamformer technologies.
The partnership will leverage WT Microelectronics’ global distribution network, which serves more than 25,000 customers across approximately 43 countries, to accelerate the commercial adoption of Sivers’ photonic and wireless solutions.
The agreement marks a significant step in expanding the availability of Sivers’ continuous-wave (CW) lasers for AI data centre connectivity and next-generation optical interconnects.
Sivers will become WT Microelectronics’ first laser product line, gaining access to established customer relationships, demand creation capabilities and large-scale production fulfilment support.
“Partnering with WT Microelectronics and becoming their first laser line card gives Sivers access to an established global distribution network, strong demand creation capabilities and the ability to support production ramp fulfilments at scale,” said Vickram Vathulya, CEO of Sivers Semiconductors.
The partnership comes amid growing demand for InP laser technologies in AI infrastructure.
According to Yole Group, the market for InP continuous-wave distributed feedback (DFB) lasers for AI photonics is projected to grow at an annual rate of 63%, reaching $43.5 billion by 2031.
“We are pleased to add Sivers’ CW lasers and wireless beamformer technologies to our portfolio.
These solutions address important and expanding markets, including AI data center connectivity, satellite communications, and next-generation wireless,” said Joseph Cheng, SVP of Marketing at WT Microelectronics.
The agreement strengthens Sivers’ global commercial presence and supports the wider availability of semiconductor laser technologies for high-capacity optical connectivity, AI infrastructure and emerging photonic applications.
