Zixent · Mission & Orbital Programme

Orbital Infrastructure.Planetary Intelligence.

Zixent is building the orbital sensing infrastructure the planet needs - not for observation alone, but for measurable, actionable planetary control and resilience. From a Nano satellite launch in 2028 to a full LEO constellation by 2029, every engineering milestone is a step toward sovereign Earth intelligence at global scale.

2028
Nano satellite
launch target
2029
Full LEO
constellation
12
Hawk satellites
planned
6
Mission
objectives
Hawk Satellite Programme

From Nano Satellite to Full LEO Constellation

The Hawk Series is Zixent's proprietary hyperspectral satellite constellation - purpose-built for continuous Earth intelligence at sovereign scale. The programme begins with a Nano satellite demonstration mission in 2028, validating the core hyperspectral sensor, onboard processing, and ground station integration before scaling to the full constellation.

By 2029, twelve Hawk satellites in low Earth orbit will deliver sub-daily revisit across key planetary zones - completing the measurement layer that makes continuous soil carbon monitoring, methane detection, flood prediction, and national resource accounting viable at any scale, for any nation.

2024-2025
Research & Foundation
SYNE Labs research origin. Hyperspectral soil algorithm development. Proof of concept across 10K hectares. Zixent is Incorporated. Ideation Funding from Ideamill Ventures.
2026
Platform & Commercial Deployment
Platform Proof of Concept. Earth Observation Studio pre-launched. Digital MRV in active commercial deployment. Hawk satellite design phase initiated. Pre-seed funding.
2026–2027
Payload Development & Integration
Hawk sensor payload engineering. Hosted payload deployment on third-party LEO mission for in-orbit validation of hyperspectral instruments.
2028
Nano Satellite Launch — Hawk-1
First dedicated Zixent satellite in orbit. Nano-class demonstration mission validating the full Hawk HS sensor suite, onboard AI processing, and ground segment at 520 km polar LEO.
2029
Full LEO Constellation — 12 Satellites
All twelve Hawk satellites operational. Sub-daily global revisit across 400–2500 nm hyperspectral spectrum. Full five-objective mission capability achieved.
Hawk Series · Orbital Specification
Orbit Type
LEO
Low Earth Orbit · Polar
Altitude
520 km
Sun-synchronous orbit
Spectral Range
400–2500
nm · VNIR + SWIR full range
Ground Resolution
10 m
Hyperspectral pixels
Constellation Size
12 sats
Full programme by 2029
Revisit (2029)
<24h
Sub-daily any point
CH₄ Sensitivity
1 ppb
Methane column detection
Onboard AI
Edge
Processing at sensor
Constellation Build-Out Progress
Research
Done
Platform EOS
2025
Payload Dev
2027
Hawk-1 Nano
2028
Full Constellation
2029
Mission Objectives

Six Objectives.
One Orbital Platform.

This mission transforms orbital sensing into operational intelligence for governments, defence systems, climate resilience, and critical industries. Zixent is building orbital infrastructure not for observation alone - but for measurable, actionable planetary control and resilience.

01
High-Revisit Hyperspectral Monitoring Across Key Planetary Zones
Achieve sub-daily hyperspectral coverage across critical land, water, and atmospheric zones - enabling continuous, calibrated measurement of soil systems, surface mineralogy, vegetation stress, and atmospheric composition at 10m resolution. The measurement cadence that climate accountability and resource governance require.
Hyperspectral Engine
02
Persistent Climate and Methane Detection Capabilities
Enable continuous detection and attribution of methane plumes at 1 ppb sensitivity, GHG column measurement, flood risk prediction, and climate anomaly tracking across national and regional territories. Persistent atmospheric intelligence - not periodic snapshots - for climate accountability and carbon market integrity.
Climate & Atmos Engine
03
National-Scale Soil, Water, and Mineral Intelligence Mapping
Establish operational intelligence mapping of soil carbon stocks, water stress indices, surface and basin hydrology, and critical mineral probability zones across entire sovereign territories. The physical resource accounting infrastructure that nations, development banks, and commodity markets depend on.
Earth Systems Engine
04
Secure, Sovereign Geospatial Intelligence Infrastructure
Deliver air-gapped, defence-grade geospatial intelligence infrastructure with full national data residency - enabling governments and defence agencies to operate sovereign Earth intelligence systems with zero foreign data exposure, classified-mode analytics, and cross-domain intelligence fusion.
Sovereign Geo Suite
05
Machine-Readable Earth System Data for Strategic Decision Environments
Provide continuously verified, cryptographically signed, API-native Earth system intelligence that integrates directly into government databases, financial platforms, defence systems, and carbon registries - converting orbital sensing into decision-grade data feeds for the systems that govern at national and strategic scale.
API & Intelligence Layer
06
End-to-End Cryptographic Verification & Audit Infrastructure
Establish a complete cryptographic chain of custody from raw satellite observation to delivered intelligence output - ensuring every data product is cryptographically signed, tamper-evident, independently auditable, and accepted by carbon registries, sovereign ministries, and international financial regulators without additional third-party validation.
Verification Layer
This mission transforms orbital sensing into operational intelligence for governments, defence systems, climate resilience, and critical industries - building orbital infrastructure not for observation alone, but for measurable, actionable planetary control and resilience.
The Mission

Sovereign Earth Intelligence for Every Nation

"Zixent builds orbital infrastructure that turns the physical world into verified, machine-readable intelligence - enabling governments, industries, and financial systems to make high-stakes decisions with precision and trust."

Zixent exists to build the Earth intelligence infrastructure that sovereign nations need but do not yet have. The monitoring of national territory, climate systems, soil health, mineral resources, and atmospheric composition cannot be a service purchased from foreign providers with foreign interests. It must be sovereign - owned, operated, and verified independently. Zixent is a space-tech intelligence infrastructure company, an orbital-to-application stack owner, a sovereign-grade data company, and a satellite-native AI platform.

We are building that infrastructure from first principles: proprietary hyperspectral satellites beginning with the Hawk-1 Nano mission in 2028, hexagonal spatial indexing, domain-specific AI models, and a platform architecture that can operate in air-gapped sovereign environments. Our first commercial product - Digital MRV - is the most immediate expression of this mission: replacing the periodic estimates and subjective audits of carbon accounting with continuous, satellite-derived, cryptographically verified measurement.

The same infrastructure that verifies a carbon credit can monitor a nation's flood risk, track its soil degradation, identify mineral deposits, watch its borders, and account for its climate commitments. One platform. One sovereign Earth intelligence layer. Built to last a generation.

Operating Principles

Six Principles We Build By

These are not aspirations. They are the design constraints that shape every product decision, every partnership, and every line of code we write.

01 · Sovereignty
Sovereignty Before Convenience
A nation's Earth intelligence must not depend on the continued cooperation of foreign entities. Every architecture decision - data residency, processing infrastructure, API design - is made with air-gap deployability as a non-negotiable constraint, not an optional add-on.
02 · Measurement
Measurement Over Estimation
The world's climate and land accounting systems run on statistical estimates, models, and infrequent sampling. Zixent replaces every estimation it touches with direct measurement - continuous, calibrated, uncertainty-quantified orbital observation that can be independently reproduced and audited.
03 · Verification
Independent Verification Is Non-Negotiable
Trust in climate commitments, carbon credits, and sovereign data requires that claims can be verified by a party with no interest in the outcome. Zixent's outputs are cryptographically signed, audit-trail anchored, and designed to function as independent third-party verification - not just data products.
04 · Science
Science-Grade Rigour at Industrial Scale
Per-pixel uncertainty quantification, ensemble model validation, ISO-aligned quality metadata, and regular independent calibration against field ground truth. Accuracy is not a marketing claim at Zixent. It is a measurable, auditable specification.
05 · Permanence
Built for the Long Arc
The infrastructure challenges of climate change, land degradation, and sovereign security will not be solved in a single product cycle. We are building orbital assets, data archives, and institutional relationships intended to operate for decades — not to optimise for the next funding round.
06 · Equity
Emerging Nations First
The countries most exposed to climate risk, land degradation, and food insecurity are often the least able to afford the monitoring infrastructure they need. Zixent's commercial model generates revenue from institutional clients that funds access for sovereign nations that most need it.
Strategic Positioning

What Zixent Is. What Zixent Is Not.

Clarity about what we are building matters as much as the technology itself. Zixent has a precise strategic identity - and it is important to understand both what we do and what we deliberately do not do.

Zixent IS
A space-tech intelligence infrastructure company
An orbital-to-application stack owner
A sovereign-grade data company
A satellite-native AI platform
A nano-satellite and LEO constellation builder
An intelligence platform operator
A sovereign technology partner
Zixent IS NOT
A carbon project developer
An ESG consultancy
A mining operator
A report-selling analytics firm
A third-party satellite reseller
Dependent on external constellations
A consultancy with data on the side
The Urgency

Why This Must Be Built Now

The window to build this infrastructure before its absence becomes a crisis is closing. Hyperspectral satellite technology has only recently reached the cost and miniaturisation threshold that makes sovereign constellation ownership viable for mid-size nations. Nano satellite platforms - like the Hawk-1 2028 demonstration mission — are the proof-of-concept layer that unlocks full constellation financing and national procurement.

The convergence of satellite cost reduction, AI model maturity, climate urgency, critical minerals demand, and sovereign data policy creates a narrow window that Zixent was built to occupy - and a 2028 launch date that cannot slip.

195
Nations with Paris Agreement commitments - each required to submit independently verified GHG inventories they currently cannot measure themselves.
$2T
Carbon market scale projected by 2050 - requiring verified measurement infrastructure that does not yet exist at the necessary accuracy or scale.
33%
Of global soils are degraded - threatening food security for 3.2 billion people in regions that lack the monitoring systems to detect, track, or respond to the problem.
2028
Hawk-1 Nano satellite launch target - the demonstration mission that validates the full sensor suite and unlocks the path to 12-satellite LEO constellation by 2029.
2029
Full Hawk constellation operational - the year Zixent achieves sub-daily global revisit, completing the measurement layer the world needs across all five mission objectives.
Our Commitments

What We Have Committed to Build

The Zixent mission is a construction programme. These are the specific, time-bound commitments we have made.

01
Launch Hawk-1 Nano Satellite by 2028
A Nano-class hyperspectral demonstration satellite at 520 km polar LEO - validating the full Hawk HS sensor suite, onboard AI processing, cryptographic data signing, and ground segment integration before scaling to the full constellation. The mission that proves the technology at orbit.
Engineering · Target 2028
02
Deploy Full 12-Satellite LEO Constellation by 2029
Twelve Hawk satellites in low Earth orbit achieving sub-daily global revisit across the 400–2500 nm hyperspectral spectrum. Six intelligence domains. Six greenhouse gases tracked. The full five-objective mission capability reached - and zero third-party satellite dependency.
Constellation · Target 2029
03
Deliver Digital MRV Accepted by Major Carbon Registries
Achieving formal acceptance of Zixent satellite-derived soil carbon data as third-party verification evidence by Teravent, Verra VCS, Gold Standard, and at least one national compliance registry - eliminating the measurement gap that limits carbon market integrity.
Active · Registry Engagement 2025
04
Establish Sovereign Deployments in Five Nations by 2027
On-premise or sovereign cloud deployments of the full Zixent intelligence platform in at least five national governments - with data residency guarantees and air-gap capability verified. Prioritising nations in the Global South with highest climate vulnerability and lowest existing monitoring capacity.
Pipeline Active · 2025–2027
05
Achieve ISO 14064 Accreditation for MRV Methodology
Completing independent third-party assessment and formal accreditation of Zixent's Digital MRV methodology against ISO 14064 greenhouse gas quantification and verification standards - providing the institutional credibility required for regulated market adoption.
In Process · Target 2026
06
Open the Zixent Soil Spectral Library
Publishing Zixent's curated Soil Spectral Library - 40,000+ field-collected reference spectra spanning tropical, temperate, arid, and coastal soil types — as an open scientific resource. Commercial use licensed; scientific and governmental use free.
Planned · 2026 Release
Scientific Foundations

Built on Established Earth Science

Zixent's intelligence capabilities are grounded in decades of peer-reviewed Earth observation science - applied at industrial scale through proprietary AI and purpose-built orbital infrastructure.

🌱
Hyperspectral Soil Spectroscopy
The relationship between soil reflectance spectra and organic carbon content — established by Viscarra Rossel et al. (2006) and validated across thousands of soil types worldwide — is the scientific basis for Zixent's soil intelligence pipeline, extended from laboratory to national orbital deployment using transfer learning and domain-adapted AI models.
Ref: Viscarra Rossel et al., Geoderma, 2006 · Ben-Dor et al., Remote Sensing of Environment, 2009
🌦️
Satellite GHG Column Retrieval
Atmospheric trace gas retrieval from shortwave infrared satellite spectra — pioneered by SCIAMACHY and refined through GOSAT and OCO-2 - forms the scientific basis for Zixent's methane and CO₂ column measurement. Hawk sensor retrieval algorithms extend detection sensitivity to 1 ppb for methane.
Ref: Frankenberg et al., Science, 2005 · IPCC AR6 WGI, 2021
🌊
SAR Flood Inundation Detection
Synthetic Aperture Radar's ability to detect open water through cloud cover and at night makes it the only reliable satellite technology for real-time flood mapping. Backscatter contrast enables sub-daily flood extent mapping at 10m resolution — the scientific basis for Zixent's flood intelligence capabilities.
Ref: Martinis et al., Remote Sensing, 2015 · Twele et al., Hydrol. Earth Syst. Sci., 2016
Hexagonal Spatial Indexing (H3)
Hexagonal cells have six equidistant neighbours - unlike square grids where diagonal neighbours are 41% further than cardinal neighbours. This makes hexagonal indexing the geometrically optimal structure for Earth intelligence applications requiring uniform spatial statistics and is the basis for Zixent's entire data architecture.
Ref: Sahr et al., Cartographica, 2003 · Brodsky, Uber Engineering Blog, 2018
📡
InSAR Ground Deformation Measurement
Interferometric SAR exploits phase differences between repeated satellite radar passes to detect millimetre-scale ground deformation. Zixent applies persistent scatterer InSAR techniques to detect subsidence along infrastructure corridors, providing early structural risk warning at precision unachievable by conventional survey methods.
Ref: Ferretti et al., IEEE TGRS, 2001 · Berardino et al., IEEE TGRS, 2002
📋
IPCC Tier 3 Carbon Accounting
Zixent's Digital MRV outputs are designed to meet IPCC Tier 3 requirements — enabling nations to submit directly-measured national communications to the UNFCCC rather than statistical estimates. The distinction between Tier 2 estimation and Tier 3 direct measurement is what Zixent's orbital infrastructure makes possible at national scale.
Ref: IPCC GPG LULUCF, 2003 · UNFCCC Technical Review Framework
"We built Zixent because the physical world - its soil carbon stocks, its methane plumes, its flood risk corridors, its mineral deposits - is still largely invisible to the systems that govern it. Orbital data closes that gap. The question was who would build the full stack to make that data sovereign-grade, machine-readable, and decision-ready. The Nano satellite launch in 2028 is where that answer begins."
Zixent Founding Team · SYNE Labs · 2024

Join the Mission

We are looking for scientists, engineers, policy experts, and mission-driven professionals who want to build the Earth intelligence infrastructure that sovereign nations need - and the government and institutional partners who want to deploy it.