Information Communications Technology

Antwave Technology Limited

🌍 Official Website 🏢 HKSTP Source
72 Potential

Decision Maker

Mr. Chi Sun, Vincent Yu
vyu@antwave-tech.com
+852 2151 1251
Units 708-709, 7/F., Building 12W No. 12 Science Park West Avenue Hong Kong Science Park, Pak Shek Kok, N.T. Hong Kong
Raw Description
Our Beliefs | Take Inspiration from our daily life to create possibilities | Product | Our patented technology for Glass Cover Antenna can turn glass, plastic or other forms of surfaces into antennae. It helps to solve problems such as unstable wireless connectivity due to antenna performance blocked by surrounding components or metal. We embed antenna in surface materials such as LCD displays, watch glass covers and building windows, to make them work as antennae with good performance. Our 5G Meta Film can stick on window surfaces to enable outdoor to indoor 5G communications, overcoming the problem of windows reflecting signals and diminishing indoor 5G communications quality. || Since Sep, 2016, ANTwave has begun a new antenna era powered by AI technology to enable product surface materials as antennae for multi-band IoT, 5G and other millimeter wave applications. | Description | ANTwave utilises proprietary patented technologies to transform glass as antenna for 5G applications

Strategic Analysis

Executive Brief

Antwave Technology Limited is a deep-tech company specializing in the integration of antennas into unconventional surfaces like glass, plastic, and LCD displays. Their proprietary technology enables 5G and mmWave (millimeter wave) connectivity through "Glass Cover Antennas" and "5G Meta Films," effectively turning building windows and consumer electronics into high-performance communication nodes while overcoming signal blockage from metal and environmental shielding.

Strategic Fit & Lead Score

Lead Score: 72 (Adjacent Tech / Strong Potential)

Why this Score? Antwave operates in the 5G and mmWave space, where signal loss and thermal management are the two primary engineering bottlenecks. As they push into higher frequency bands (24GHz to 100GHz+), standard glass and polymer substrates exhibit significant dielectric loss. 6C’s MPCVD Diamond offers the world’s lowest dielectric loss tangent and highest thermal conductivity, providing a "super-material" substrate that could allow Antwave to create the world’s most efficient transparent antennas.

6C Solutions Proposal

Application Area 6C Solution Technical Value Prop
mmWave Substrates Optical Grade PCD Wafers Diamond has a low dielectric constant (εr ≈ 5.7) and extremely low loss tangent (tan δ < 10-4). Replacing glass with diamond for high-end mmWave hubs reduces signal attenuation by orders of magnitude.
Thermal Management PCD Heat Spreaders 5G RF front-end modules integrated into glass generate localized heat. 6C Diamond (thermal conductivity > 2000 W/mK) dissipates heat 5x faster than copper, preventing thermal throttling in compact antenna arrays.
Protective Coatings Nanocrystalline Diamond (NCD) For Antwave’s "Watch Glass" antennas, a 6C protective coating provides extreme scratch resistance (Vickers hardness ~100 GPa) without interfering with the RF transparency of the embedded antenna.
Meta-Surface R&D Custom MPCVD Reactors Enable Antwave to grow their own doped or undoped diamond layers directly onto silicon or refractory metal "seeds" to develop next-generation AI-optimized meta-materials in-house.
Signal Boosting BDD Tunable Surfaces Boron-Doped Diamond (BDD) can act as a semiconductor. Integrating BDD elements into their Meta Films could allow for electronically steerable or tunable antenna surfaces.

Engagement Hooks

  • Technical Question: "As Antwave moves further into the mmWave and potentially 6G spectrum, how are you addressing the dielectric loss and signal-to-heat conversion inherent in standard aluminosilicate glass substrates?"
  • Value Statement: "6C can help Antwave extend the range and power efficiency of your transparent antennas by providing MPCVD diamond substrates that offer the industry's lowest signal insertion loss and unmatched thermal dissipation."