MOXZ provides a blind digital modulation technique called Modulation on Conjugate‑Reciprocal Zeros (MOCZ) that encodes data directly onto the physical layer without any channel training, enabling ultra‑short, low‑latency packets for machine‑type IoT and future 6G applications.
Funding
Funding not disclosed
Founders
Product
Problem
Machine-type IoT devices and future 6G applications require ultra‑short, low‑latency wireless packets that can be transmitted reliably over unknown multipath channels without the overhead of training sequences. Existing modulation schemes struggle with high mobility, Doppler effects, and power constraints, limiting performance in dense or fast‑moving environments.
Solution
MOXZ offers a blind digital modulation technique called Modulation on Conjugate‑Reciprocal Zeros (MOCZ) that encodes data directly onto the physical layer without channel estimation. The method transmits ultra‑short packets with high bandwidth efficiency and low power consumption, while remaining robust to multipath fading and Doppler shifts. By eliminating training symbols, MOCZ reduces latency and simplifies transceiver design, enabling reliable communication for sporadic machine‑type traffic. The same waveform inherently provides precise ranging information, supporting integrated sensing and communication (ISAC) for 3‑D positioning of mobile nodes. MOXZ targets deployment in industrial IoT, high‑mobility scenarios, and emerging 6G networks where both data transfer and sensing are required.
Target Audience
Primary customers are manufacturers of machine‑type IoT devices, industrial automation systems, and network operators developing 6G ISAC solutions that require low‑latency, power‑efficient wireless links with built‑in positioning.
Features
- Blind (non‑coherent) modulation that operates without channel state information or training sequences
- Ultra‑short signal bursts delivering low latency and high bandwidth efficiency
- Low‑power transmission suitable for battery‑constrained IoT devices
- Strong resilience to Doppler spread, enabling reliable communication in high‑mobility environments
- Built‑in multipath diversity exploitation for robust performance over unknown channels
- Integrated ranging capability providing precise 3‑D positioning and radar sensing