WAVELORE COMMUNICATIONS

Intelligence Embedded in Every Wave

Hardware for semantic communication: deep-learning decoders for semantic symbols (audio/video) and scalable ML compute for wireless systems.

Business Description

WaveLore Communications is a hardware-focused startup building next-generation systems for semantic communication. We design specialized hardware and deep learning decoders that decode semantic-based symbols (audio or video representations) and enable scalable machine learning compute inside wireless communication pipelines. Our mission is to make communication more efficient, robust, and meaning-aware by shifting from “bit-perfect transmission” toward semantic-level understanding.

What we do

Hardware + AI decoding

We build hardware platforms optimized for running deep learning models that decode semantic symbols, and we develop decoding architectures that convert received semantic symbols into meaning-rich outputs efficiently at the edge.

Problems we solve

Why it matters

  • Traditional wireless systems optimize bits even when the true objective is meaning or task output
  • Semantic decoding with deep learning is compute-heavy and difficult to deploy on scalable, low-power hardware
  • Wireless ML pipelines require low-latency inference that remains reliable under real channel conditions
Target users

Who it’s for

  • Primary: wireless and edge-AI teams building next-gen communication systems
  • Secondary: industrial IoT, robotics, autonomous systems, and critical communications
  • Early adopters: R&D labs and engineering teams prototyping semantic comms + edge inference hardware

Core Technology

Our stack combines semantic symbol design (audio/video-like representations), deep learning decoding architectures, and scalable hardware optimized for low-latency inference inside wireless communication systems.

Semantic Symbol Encoding

Semantic symbols represented as audio- or video-like patterns that carry meaning and task intent, rather than raw bit-level payloads.

Deep Learning Semantic Decoders

Neural architectures that decode received semantic symbols into structured outputs (meaning, classes, intents, or task-relevant representations).

Scalable ML Hardware for Wireless

Hardware designs optimized for edge inference—throughput, latency, and power efficiency— to enable real-time ML within wireless communication pipelines.

Prototype + Validation Workflow

Validation using test signals and controlled experiments, with public documentation and diagrams that show semantic decoding performance and hardware feasibility.

Product

WaveLore Semantic Hardware Platform is a scalable hardware + software stack for semantic communication, designed to decode semantic-based symbols (audio/video representations) using deep learning architectures and to support ML inference within wireless systems at the edge.

Core features

What users get

  • Semantic decoder pipeline — deep learning models that decode semantic symbols into meaning-aware outputs
  • Hardware-optimized inference — scalable compute design for low-latency semantic decoding at the edge
  • Symbol experimentation — audio/video semantic symbol formats for robust detection and decoding
  • Benchmark + evaluation — repeatable tests (latency, accuracy, robustness, throughput, power)
Use cases

Where it’s used

  • Edge semantic communication for robotics and autonomous systems (task-level reliability)
  • Industrial IoT where low-latency inference is needed over noisy or constrained links
  • Next-gen wireless R&D for semantic PHY and meaning-aware decoding experiments
Integrations

How it fits

  • Signal input from SDR/test equipment and replayable datasets
  • Model deployment on scalable compute (prototype hardware and edge form factors)
  • Exportable results: plots, logs, performance summaries for reviews and reporting

Development Stage

Current Stage: MVP (Prototype hardware + decoder pipeline in active development)

We are building and validating the MVP through prototype demonstrations, decoder benchmarks, and hardware feasibility tests.
What exists today

Current capabilities

  • Semantic symbol decoding pipeline (audio/video semantic representations → decoded outputs)
  • Initial deep learning decoder architectures for semantic inference
  • Prototype compute setup for measuring latency/throughput/power feasibility
Validation

Evidence of progress

  • Prototype screenshots/diagrams showing semantic decoding pipeline and outputs
  • Early benchmarks (accuracy/robustness/latency) and repeatable evaluation scripts
  • Roadmap for scalable hardware packaging and deployment readiness
Next 30–90 days

Milestones

  • Publish more public screenshots/diagrams of the product workflow and hardware
  • Complete next prototype iteration and share performance targets
  • Expand benchmarks across more symbol formats and wireless conditions

Team

WaveLore Communications is led by founders with complementary expertise across low-energy hardware, physical-layer wireless systems, and machine learning for semantic communication. Professional profile links (LinkedIn) are provided for transparency.

William Asiedu
Co-Founder — Low-Energy Hardware in Wireless Communication
Focused on building energy-efficient, scalable hardware architectures for ML-enabled wireless systems, targeting practical deployment constraints such as latency, throughput, and power.
Dickson Akuoko
Co-Founder — Physical Layer Expert & Machine Learning Specialist
Leads PHY-layer and ML decoding direction, bridging wireless signal processing and deep learning methods for semantic symbol decoding under realistic channel conditions.
Christ Somiah
Co-Founder — Wireless Communication, Computer Networks & Machine Learning
Works across system design and end-to-end integration: semantic communication concepts, wireless/network architecture, and ML workflows for deployment-ready decoding pipelines and demonstrations.

Contact Us

Email: christsomiah@wavelorecom.com
Houston, Texas — Serving globally