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Foundational Information Technology

The efficiency layer for the AI economy.

Make intelligence lighter before making infrastructure bigger.

General Harmonics develops patented information architecture designed to identify structure inside digital information and increase useful information density before that information consumes memory, bandwidth, compute and energy.

MSML provides the foundational representation. IDDO applies that structure to optimization. The objective is simple: preserve what carries information value while reducing unnecessary information burden.

More information value per byte. More intelligence per watt. More capability from existing infrastructure.

Why Now

AI does not have a demand problem. It has an efficiency problem.

Models are growing. Context is growing. Inference is scaling. AI agents add memory, tool calls, context exchanges and longer-running workflows. The result is increasing pressure on memory, accelerators, networks, data-centre capacity and power.

~$750B

Expected 2026 data-centre spending by Alphabet, Amazon, Meta, Microsoft and Oracle.

Source: Reuters / Breakingviews

~$1.09T

Future lease commitments disclosed by major technology companies, largely tied to AI-driven data-centre expansion.

Source: Reuters

~950 TWh

Projected global data-centre electricity consumption by 2030 — roughly double 2025 levels.

Source: IEA
More modelsWeights & working sets
Longer contextMemory & KV traffic
More inferenceCompute & accelerator load
More agentsTokens, memory & tool calls
More infrastructureCapital, network & energy

Every unnecessary byte has a downstream cost.

Information efficiency is an added optimization layer on top of the infrastructure already required.

The Economic Mechanism

Structure changes what information costs.

Digital information is not free once it enters a system. It must be stored, moved, held in memory, processed, and often transmitted across networks. Each step consumes infrastructure and energy. We work on the representation of that information before those downstream costs accumulate.

Reduce unnecessary information burden upstream. Change downstream resource demand.

We ask an earlier question: how much information burden actually needs to enter this chain in the first place?

Hardware makes computation faster. We work on making the information being computed lighter.

Information
Store it
Move it
Hold it in memory
Process it
Transmit it
Power it

The infrastructure it travels through

Storage
Memory
Network
Accelerator
Compute
Energy

Technology Foundation

A foundational architecture — structure first, then density.

We represent information as multi-structural, multi-level relationships, then reduce what has to be stored, moved and computed — optimizing the output for the task at hand without losing what matters.

Raw informationStructuresMultiple levelsRelationshipsMSMLInformation densityIDDOApplication
MSML

Multi-Structural, Multi-Level

A patented information formalization architecture that represents information through structures, relationships and multiple levels — rather than treating it only as a flat stream of data.

IDDO

Intelligent Data Density Optimization

An applied methodology that uses structural representation to increase useful information density while preserving the information required by the task.

MSML identifies and represents structure. IDDO uses that structure to optimize information burden.

More useful information per byte, not simply fewer bytes.

The objective is not reduction for its own sake. It is to preserve the information that carries value while reducing unnecessary informational burden.

Smaller data alone

is not the objective

Higher useful information density

is the objective

MULTI-STRUCTURAL · MULTI-LEVEL

From Foundational IP to Customer-Specific Solutions

Every pipeline is different. The optimization architecture should respond to the pipeline.

One enterprise may be constrained by model memory. Another by inference cost. Another by long-context traffic, RAG, multimodal data, edge-device limits or agent-generated context. Within a single enterprise, several of these constraints may exist at once.

We are developing an AI-assisted orchestration capability designed to apply MSML / IDDO selectively to the customer’s actual information pipeline.

MSML Solution Engine — In Development

Foundational technologies can apply broadly, but they are difficult to scale commercially when every enterprise architecture is different. The developing MSML Solution Engine is intended to bridge that gap by translating one foundational architecture into many specialized implementations.

Customer pipeline

Models · RAG · Agents · Databases · Multimodal data · Networks · Edge

MapIdentify where information enters, moves and accumulates.
MeasureLocate where memory, context, bandwidth, compute or duplication becomes expensive.
OptimizeApply MSML / IDDO selectively where it can improve useful information density.
ValidateMeasure technical impact against an agreed baseline and acceptance criteria.
DeployIntegrate the validated implementation into the customer’s environment.

Apply MSML / IDDO where it creates value. Not everywhere by default.

One foundation. Thousands of pipelines. Thousands of possible MSML solutions.

AI & Data Centres

Make intelligence lighter before making infrastructure bigger.

As models, context windows and agentic workloads grow, more of the burden sits in how weights, working sets, activations, context and intermediate information are represented, stored and moved across memory, accelerators and networks. MSML / IDDO addresses the information layer beneath that stack — reducing unnecessary information burden while preserving the information required by the workload.

Model
Memory
Context
Accelerator
Network
Inference
MSML · IDDO · MSML-LLMC

The objective is not to replace GPUs, HBM, networks or cloud infrastructure. It is to reduce the information burden those systems must carry and process.

Where it is relevant

Model weightsMemory / working setsKV / context processingInferenceNetwork trafficStorageAccelerator utilizationEdge AIEnergy demandInfrastructure capacity
Centralized AI

Increasing capability often requires more memory, bandwidth and centralized infrastructure.

Edge AI

More intelligence must fit within constrained memory, bandwidth, power and connectivity.

Increasing useful information density may help make more capable local intelligence practical within constrained environments — connecting the same architecture to robotics, autonomous systems, telecom, sovereign systems and embedded intelligence.

Explore AI & Compute

Measurable Value

Technical efficiency only matters when it changes the economics.

We evaluate information efficiency through measurable technical KPIs, then connect those changes to the operating resources they influence. The relevant metrics depend on the customer pipeline and must be validated against a defined baseline.

What we measure

Information volume

Bytes represented, stored or moved

Memory footprint

Model footprint, working sets and context / KV memory

Network load

Traffic and bandwidth requirements

Compute workload

Processing burden and accelerator workload

Latency

Task, inference or pipeline response

Energy

Energy associated with processing and moving the workload

What it may change

More workload capacity from existing infrastructure

Lower compute or inference cost

Reduced cloud, storage or network burden

Deferred infrastructure expansion

Greater edge feasibility

Lower energy requirement

Technical KPI → infrastructure effect → economic effect

  • Lower network traffic → less bandwidth burden → lower transmission cost / more capacity
  • Smaller working set → lower memory pressure → more workload capacity
  • Lower compute burden → fewer processing resources per workload → lower operating cost

Evidence status — used wherever claims appear

Validated

Measured under defined test conditions.

Demonstrated

Observed in GH / PulsBeat implementations.

Target

Acceptance objective currently under validation.

Modelled

Scenario based on stated assumptions.

In development

Planned capability not yet production-ready.

Measure the information burden. Validate the technical change. Translate it into economic value.

From Foundation to an Industry Stack

PulsBeat shows how foundational information architecture becomes applied technology.

Media became an early major implementation environment for our foundational work. Through PulsBeat Media, the architecture progresses from information principles into specialized technologies, infrastructure, platforms and commercial experiences.

Information

The same foundational information object established at the start.

The Acoustic Intelligence Stack

Five technologies. One structured representation of sound.

Represent

D1 AUDIO

Recognize

AudioDNA

Synchronize

LiveLink

Identify / Protect

LDE

Distribute / Infrastructure

cDM Cloud

GENERAL HARMONICS — Foundational Information Architecture↓ MSML + IDDOPULSBEAT MEDIA — Applied Acoustic IntelligenceD1 AUDIO · AudioDNA · LiveLink · LDE · cDM Cloud — TechnologiesAudioMine · my.ARTIST.one · Connect360 — Platforms & Experiences

PulsBeat demonstrates the progression from foundational IP to applied technology, infrastructure and commercial experiences. It should be understood as proof of translation, not as the limit of the GH architecture.

Explore PulsBeat

Where the Architecture Applies

One architecture. Multiple information environments.

The information changes from industry to industry. The recurring constraints often do not: volume, memory, bandwidth, compute, latency, energy and complexity.

The industries change. The economic denominator does not: information still has to be represented, stored, moved and processed.

Primary application environments

Extension environments

MSML + IDDO + MSML-LLMC
MSML AI & Machine Intelligence layered model: Model Structure, Activations, Memory / Context, Inference
Model StructureActivationsMemory / ContextInference

AI & Machine Intelligence

Modern AI depends not only on computation, but on how efficiently models, memory, context and information flows are represented.

  • Model representation & weight structure
  • Activation and KV / context structures
  • Memory efficiency across inference
  • Edge, multimodal and model distribution
Primary Environment

Sovereign & Edge AI

Some AI workloads cannot depend indefinitely on centralized infrastructure. Memory limits, bandwidth constraints, intermittent connectivity, infrastructure availability and data-location requirements can make local processing strategically important.

MSML / IDDO may help increase useful information density so that more capable intelligence can operate within constrained local infrastructure.

Potential relevance

Local model executionConstrained memoryLimited bandwidthEdge inferenceIntermittent connectivityDistributed infrastructureLower central-network dependenceEnergy-constrained devices

Application relevance depends on the information pipeline, workload and validation criteria of each environment.

Protected Technology Foundation

A defensible architecture, from foundation to application.

Our intellectual-property estate extends from foundational information formalization into applied technology families and additional fortification inventions.

Foundational IP — MSML / IDDO
AI / ComputeAcoustic Intelligence
Applications

Foundational IP

MSML and related information formalization.

Granted · Filed / Pending

Applied IP

Media representation, synchronization, recognition, identity and distribution families.

Filed / Pending · Provisional

Emerging / Fortification IP

Additional inventions and prepared filings extending the core architecture.

Provisional · Prepared for Filing

GrantedFiled / PendingProvisionalPrepared for Filing
View patent records

The value of the estate is not only in individual patents, but in the layered relationship between foundational architecture, applied implementations and continuing fortification.

Status reflects current filing stage. Inventions prepared for filing are shown distinctly and are not represented as filed.

MSML Solution Factory

One foundational architecture. Many customer-specific implementations.

The commercialization challenge for foundational technology is that every enterprise architecture is different. We are building toward a more systematic way to translate MSML / IDDO into specialized implementations for individual customer pipelines.

The developing Solution Engine is intended to make that translation increasingly repeatable, measurable and scalable.

Foundational IPMSML + IDDO
Pipeline analysisIdentify the information bottleneck
Custom optimizationDesign the workload-specific application
ValidationMeasure against baseline & acceptance criteria
Deployment / licensingMove validated technology into use

Without a translation layer, broad foundational technology can require extensive custom engineering for every implementation. The MSML Solution Factory is intended to reduce that friction by creating a repeatable path from foundational architecture to validated customer solutions.

Commercial Paths

How organizations can work with us.

Technology Licensing

License foundational or applied GH technology into third-party systems and platforms.

Enterprise Pilots

Evaluate MSML, IDDO, MSML-LLMC or Acoustic Intelligence against real workloads, define measurable acceptance criteria and determine the path to deployment.

Applied Platforms

Extend value through PulsBeat Media, Acoustic Intelligence, AudioMine and related application environments.

Strategic Development

Joint development, integration, strategic partnerships and other structured technology-development opportunities.

Enterprise Engagement

Bring us your information bottleneck.

Tell us where information becomes expensive. We evaluate the pipeline, identify the constraint, establish measurable acceptance criteria and determine where MSML / IDDO may create the greatest technical and economic value.

The starting point is not the technology. It is your actual information pipeline and the constraint that matters most.

01

Pipeline

Models · RAG · Agents · Multimodal workloads · Data pipelines · Networks · Edge

02

Constraint

Memory · Bandwidth · Compute · Context · Storage · Latency · Energy

03

Baseline

Establish the current technical and economic baseline before optimization.

04

Target KPI

Define the acceptance criteria before testing.

05

Pilot

Validate against the real workload, then decide the path to deployment, licensing or further development.

Different industries. The same underlying information challenge.

AI models, data centres, networks, media platforms, machines and connected systems all depend on how efficiently information can be represented, stored, moved and processed. General Harmonics works at that foundational layer.

More information value per byte. More intelligence per watt. More capability from existing infrastructure.