Helix is Heliphere's centralised operating platform. It monitors every sensor across every resource loop in real time, triggers autonomous corrective responses before conditions drift outside safe bounds, learns from system behaviour over time, and surfaces the intelligence operators need to make decisions with confidence.
Five resource loops generate thousands of signals per minute. Helix ingests, correlates, and acts on all of them — so operators see a single coherent picture instead of five independent dashboards.
A unified sensor network spanning all five loops. Every measurement — gas concentration, flow rate, temperature, pH, power draw — feeds a single time-series store and live dashboard.
Rules-based and model-driven automation responds to out-of-bounds readings in milliseconds — adjusting valves, pumps, lighting schedules, and power routing without waiting for human input.
Predictive models continuously learn from operational data — forecasting resource demand, detecting anomaly signatures before they become failures, and optimising cross-loop efficiency over time.
Structured reports at every timescale — from sub-second event logs to monthly sustainability summaries — giving operators, stakeholders, and regulators the data they need in the format they need it.
Helix deploys a distributed sensor mesh across the entire facility. All measurements are timestamped, ingested into a central time-series database, and made available through a unified interface with sub-second refresh.
Continuous electrochemical and optical sensing of O₂, CO₂, N₂, humidity, particulate count, and volatile organic compounds. Helix correlates atmospheric data with food-loop photosynthetic rates and energy consumption to maintain optimal growing and living conditions simultaneously.
Flow metering, tank levels, pressure differentials, and continuous water-quality sensing across all treatment stages. Helix tracks the full water budget — input, consumption, loss, and recovery — with enough resolution to identify a slow leak within minutes of onset.
Canopy-level light intensity, substrate moisture, root-zone EC, nutrient solution temperature, and biomass growth rate tracking via time-lapse imaging. Helix models daily yield against energy and water spend to flag inefficiencies before they compound.
Real-time generation output, state-of-charge across all storage vectors (battery, hydrogen, thermal), per-subsystem consumption metering, and grid-frequency stability. Helix maintains a live energy budget and sheds non-critical loads automatically when reserves tighten.
Mass-flow tracking through composting, pyrolysis, and manufacturing stages — input weights, processing temperatures, output volumes, and finished-goods inventory. Helix maintains a real-time materials balance to ensure feedstock availability and flag accumulation of unprocessed waste.
Beyond per-loop telemetry, Helix continuously computes cross-loop mass and energy balances — tracking whether the system is net-positive, neutral, or drawing down reserves in any dimension. This system-level view is what no single-loop monitoring tool can provide.
Rules and thresholds define safe boundaries. Machine learning finds the optimal operating point within them — and keeps finding better ones as the system accumulates operational history.
Time-series models trained on historical consumption patterns predict resource demand 6–72 hours ahead for all five loops. Forecasts feed the scheduler, which pre-positions resources and avoids reactive scrambles.
Unsupervised and semi-supervised models learn the normal multivariate signature of every subsystem. Departures from that signature — even subtle ones — are flagged long before any single sensor breaches a threshold.
An RL agent continuously optimises energy distribution, water routing, and nutrient delivery across all loops simultaneously — balancing competing objectives like yield maximisation, energy efficiency, and reserve headroom.
Camera arrays over growing zones feed a convolutional model that detects early-stage nutrient deficiencies, pest signatures, and disease markers — producing per-zone health scores and updated yield forecasts daily.
Nutrient dosing, pH correction, and water treatment chemical addition are governed by models that learn each specific system's response characteristics — accounting for water source variability, microbial population shifts, and plant uptake rates unique to that installation.
Operators query Helix in plain language — "Why did water consumption spike on Tuesday?" or "What's limiting yield in zone 4?" — and receive answers grounded in actual system data, with the underlying evidence surfaced alongside the conclusion.
Helix generates structured reports automatically — from real-time operator feeds to boardroom sustainability summaries — without any manual data extraction or spreadsheet assembly.
A continuously updated view of all five loops — key vitals, active alerts, recent events, and system health score — designed for the person responsible for the facility right now. Configurable by role and access level.
Automatically generated at the end of each operational day: resource consumption vs. forecast, events and responses, anomaly model activity, and efficiency metrics per loop. Delivered by email or in-app.
Weekly and monthly balance sheets for water, energy, carbon, and nutrients — showing inputs, outputs, internal cycling, and losses. The audit trail that demonstrates closure of each loop with quantified evidence.
Structured exports aligned to environmental reporting frameworks — water-use efficiency ratios, carbon sequestration volumes, waste diversion rates, and energy intensity per kilogram of food produced. Ready for regulator or investor submission.
Full event history for every subsystem — sensor readings at time of fault, automated responses taken, resolution time, and recurrence analysis. The data foundation for a predictive maintenance programme.
Transparency into how the ML models are performing — prediction accuracy, anomaly detection recall, dosing model error rates, and RL policy improvement over time. Operators can see what the system is learning and audit its decisions.
Every connection shown is a real material, energy, or chemical exchange — and a live data stream inside Helix. Click a domain to trace what it gives and what it receives.
Click a node to trace its connections
Every domain has genuine hard problems in isolation. Integration doesn't eliminate them — it reassigns them. Helix is what makes that reassignment automatic: one loop's unavoidable byproduct becomes another loop's managed input, routed and balanced without human intervention.
Every other loop depends on continuous, reliable power. Intermittency is the killer. Off-grid baseload without redundancy is expensive in isolation — but waste heat from generation becomes a valuable input to food and water.
Plant biology is the most powerful atmospheric processor available. Isolated food systems need external CO₂ scrubbing, fertiliser imports, and organic waste disposal — all of which other loops solve.
Atmospheric management in sealed environments normally requires chemical scrubbers, consumable filters, and pressurised oxygen tanks — each a recurring resupply dependency. Integration eliminates all three.
Standalone water systems close the H₂O loop but accumulate mineral-rich waste streams — brine and sludge — that are costly to dispose of. Integration converts those waste streams into feedstocks for two other loops.
Materials processing in isolation requires imported feedstocks. In an integrated system, feedstocks arrive from every other loop — organic waste, captured CO₂, mineral concentrate, and process heat — at no additional cost.
These are not theoretical connections. Each is a real material or energy exchange that Helix actively manages — routing flows, adjusting setpoints, and confirming closure. Every synergy below is a live orchestration task running inside the platform.
Photosynthesis consumes CO₂ and produces O₂ as a continuous byproduct of growing food. A productive food loop eliminates chemical CO₂ scrubbers and compressed oxygen supply — two of the highest-cost consumables in any sealed environment.
Plants return 70–95% of absorbed water as vapour through transpiration. Captured in the air system and returned to the water loop, this enables a near-complete water cycle — no external water resupply needed at steady state.
Captured CO₂ from the air loop is mineralised into calcium carbonate and similar compounds for construction use. The gas that scrubbers must remove becomes a durable building material — no disposal, no venting, no waste.
Surplus power from solar or nuclear drives electrolysis: water splits into H₂ and O₂. Hydrogen stores the energy; oxygen feeds the air loop. When power is needed, the hydrogen is oxidised — recovering water back into the loop.
Inedible biomass, roots, and processing offcuts enter the materials loop and are converted to compost and biochar. These return as soil amendments to the food loop — closing the nutrient cycle without a single import of fertiliser.
Reactors and solar-thermal systems shed heat that in isolation is simply lost. In an integrated system, this heat warms controlled-environment agriculture, drives distillation, and maintains process temperatures — removing entirely separate heating loads.
Controlled-environment agriculture decouples food production from sunlight entirely. Surplus energy drives LED grow lighting tuned to photosynthetic peaks, enabling year-round yields at any latitude, depth, or planetary surface — independent of seasons or weather.
A managed atmosphere holds moisture at known concentrations. Dehumidification hardware already present for air quality control produces pure condensate as a continuous byproduct — harvesting water from air without any additional extraction infrastructure.
Pure oxygen produced by photosynthesis and electrolysis dramatically increases combustion and fuel-cell efficiency. Rather than venting excess O₂, it is fed into the energy loop — raising power density and removing the need for separate oxidiser supply.
Wastewater and brine streams carry dissolved minerals — calcium, magnesium, silica — that are waste in an open system. Precipitation and membrane processing extract these as feedstocks for construction materials, closing both the water loop and the minerals loop simultaneously.
Surplus energy drives additive manufacturing, sintering, and waste-to-feedstock processing on demand. The materials loop requires no separate power infrastructure — it runs on the same grid as life support, scaling fabrication up when energy is abundant and throttling when it is not.
Algae and aquatic plant cultures simultaneously produce protein and biomass (food), consume CO₂ and produce O₂ (air), and strip nitrogen and phosphorus from wastewater (water). A single cultivation system replaces three separate units — this is the integration dividend made visible.
Fish produce ammonia-rich waste (materials feedstock), nitrifying bacteria convert it to plant-available nitrates, plants absorb the nitrates and clean the water, fish feed on plant biomass. The system imports nothing and exports nothing — every nutrient cycles indefinitely without external fertiliser.
Surplus energy splits water into H₂ and O₂. The oxygen is fed directly into the air loop, eliminating the need for stored compressed O₂. When energy is needed, a fuel cell recombines H₂ and O₂ back into electricity and water. One system provides energy storage, air management, and water recovery simultaneously.
Organic waste from the food loop enters an anaerobic digester. The outputs are biogas (direct energy), digestate (soil amendment returning to the food loop), and CO₂ (fed back to plant cultivation). One waste stream simultaneously fuels the energy loop, closes the nutrient cycle, and feeds the food loop — with nothing going to landfill.
Waste heat from reactors, exothermic chemical processes in materials, biological heat from food systems, and condensation from the air loop all converge in the water loop. Water acts as the system-wide thermal bus — redistributing temperature to where it is needed, eliminating separate HVAC loads, and making the whole more thermally stable than any individual loop could be alone.
Isolated life-support loops fail because each one has at least one critical external dependency — something that must arrive from outside. Integrate the loops and those dependencies shrink dramatically. Helix is what makes integration operationally real: not a diagram on a wall, but a live platform routing flows, catching drift, and learning every day.
The biosphere already runs this system at planetary scale. Heliphere re-engineers it for human-controlled environments — and Helix is the intelligence that keeps it running, whether the facility is on Earth, underground, at sea, or eventually beyond.