Conflict monitoring and damage assessment

Systematic SAR-optical collection over conflict areas produces damage assessment, displacement indicators and infrastructure status that hold up under legal scrutiny, even when access is denied and narratives are contested.

The dependence this ends: Contested narratives and inaccessible ground

Why this mission exists now

Ground access in active conflict zones is intermittent at best and politically manipulated at worst. Journalists are excluded. UN monitors are delayed. Governments on all sides issue their own damage tallies. The result is a factual vacuum that propaganda fills efficiently.

Since 2022, that problem has sharpened. Commercial imagery providers have demonstrated that shutter control, export restrictions and constellation access agreements can all be invoked under political pressure. A government that depends on a foreign commercial operator for its conflict-monitoring data has, in effect, outsourced its situational awareness to someone else's risk calculus. Optical satellites are additionally constrained by cloud cover and smoke, both of which are abundant in active combat. The combination of political dependence and physical limitation is not a gap; it is a systematic failure mode.

A sovereign conflict-monitoring programme addresses both problems at once. It places collection authority with the operator, not the vendor, and it pairs optical sensors with synthetic aperture radar, which penetrates cloud and smoke and operates equally day or night. The data chain, from tasking to archive, stays inside the programme's jurisdiction.

What the sensors actually see, and where they fall short

X-band SAR at sub-metre resolution can detect building collapse, vehicle concentrations, cratering, changes to road surfaces and the presence of large temporary structures such as field hospitals or displaced-persons encampments. Coherent change detection between two passes over the same area can flag disturbance at scales smaller than the pixel, which is useful for identifying disturbed ground even when individual objects are not resolved. Published work from Sentinel-1 and ICEYE commercial tasking over Ukraine has established what is achievable at 3-metre and 0.5-metre resolution respectively.

Multispectral optical imagery adds what radar cannot provide: material identification, vegetation stress as a displacement proxy, thermal anomalies and the visual detail that courts and analysts find most legible. Low-light night-time imaging contributes a further layer, because population presence, generator use and vehicle movement at night are often more diagnostic than daytime imagery in areas where activity is deliberately concealed.

Honest limits matter here. A two-satellite pathfinder revisits any given point roughly every two to three days at mid-latitudes, which is sufficient for damage accumulation tracking but not for real-time battle-damage assessment. Cloud and smoke affect optical collection; SAR is unaffected but introduces its own ambiguities, particularly layover and foreshortening in urban canyons. Neither sensor identifies combatants or assigns legal responsibility. The programme produces facts about physical change; interpretation and attribution remain human tasks.

The evidentiary chain

Damage data used in legal proceedings, sanctions determinations or international tribunal submissions faces a standard that commercial imagery alone rarely satisfies: chain of custody, metadata integrity, and a demonstrable absence of post-collection manipulation. A sovereign programme can be architected to meet that standard from the outset. Raw sensor data is cryptographically timestamped at the ground station. Processing logs are preserved. The entire pipeline from satellite to analyst workstation is auditable.

This is not a theoretical concern. The International Criminal Court and several UN commissions of inquiry have grappled with the admissibility of commercial satellite imagery precisely because the chain of custody runs through a private foreign company whose internal processes are not independently verifiable. A nationally operated programme, built with audit rights and source-access terms agreed before signature, removes that dependency. The data is yours, the archive is yours, and the provenance is yours to demonstrate.

The ambition ladder

A pathfinder configuration starts with two satellites: one carrying an X-band SAR payload and one carrying a multispectral imager and low-light sensor. Two satellites are enough to establish a functioning collection cadence, validate ground processing, train an operator team and begin building an archive. Small-satellite missions of this class have publicly reported budgets in the low tens of millions of dollars for the space segment alone; ground infrastructure and exploitation software add meaningfully to that figure. The pathfinder is not a demonstration; it is an operational system with acknowledged revisit constraints.

An operational constellation of four to six satellites, mixing SAR and optical assets across complementary orbital planes, reduces revisit to sub-daily for priority areas and enables the kind of systematic, timestamped coverage that supports both operational decision-making and long-term evidentiary archives. National programmes of comparable scope, such as Italy's COSMO-SkyMed constellation or South Korea's Arirang series, give a public reference for the scale of investment involved, running into hundreds of millions of dollars over a multi-year development and launch cycle.

The choice of level depends on the monitoring geography, the legal use case, and whether the programme needs to be self-sufficient or can accept some dependence on allied collection for surge capacity. Both are defensible positions; the pathfinder is not a stepping stone that commits you to the constellation. It is a complete, if limited, capability.

What you own at handover

The programme is structured so that sovereign ownership is the destination, not the aspiration. Source-access terms and hardware audit rights are agreed before contract signature. Staged handover to national operator teams begins during the integration phase, not after launch.

At full handover, the customer holds the satellites (or the controlling interest in them, depending on procurement structure), the ground station infrastructure, the processing and exploitation software with source code under agreed terms, the raw and processed data archive, and a trained national team capable of independent tasking, processing and analysis. Satellize retains no ongoing data access rights after handover unless the customer specifically requests a support arrangement.

What remains genuinely shared, at least initially, is deep engineering expertise for anomaly resolution and the relationships with launch and bus integration partners that were arranged and integrated as part of the programme. Those relationships transfer progressively as the national team gains experience. A programme of this kind does not produce overnight self-sufficiency; a realistic timeline to confident independent operation is three to five years from first launch.

What this mission is built from

X-band SAR payloads: Primary all-weather, day-night collection payload; provides coherent change detection and sub-metre damage mapping through cloud, smoke and denial.
Multispectral imagers: Optical complement to SAR; adds material identification, vegetation stress as a displacement proxy, and the visual legibility required for evidentiary and analytical use.
Low-light and night-time imagers: Captures night-time activity signatures including generator use, vehicle movement and population presence that are diagnostic in denied or concealed-activity environments.
In-country data processing: Keeps raw sensor data and the processing chain inside the customer's jurisdiction, enabling the metadata integrity and chain-of-custody architecture required for legal admissibility.
Exploitation and analysis software: Provides the analyst workstation environment for change detection, damage classification, displacement indicator extraction and archive management, with source-access terms agreed at contract stage.

What you end up owning

Satellite assets (or controlling interest therein) including all flight software under agreed source-access terms
Ground station infrastructure: antennas, mission control hardware and network equipment, physically located in-country
Raw and processed data archive with cryptographic provenance records, held on national infrastructure
Exploitation and analysis software with source code under agreed licence terms
Trained national operator and analyst team capable of independent tasking, processing and assessment
Hardware audit rights and documented chain-of-custody architecture for evidentiary use

Handover is staged across the programme lifecycle: national operators shadow Satellize engineers during integration and early operations, taking primary responsibility for routine tasking before the formal handover milestone. At handover, all data rights, software licences and hardware documentation transfer to the customer. Satellize retains no ongoing data access; continued engineering support, if required, is a separately scoped arrangement at the customer's discretion.

Programme parameters

Pathfinder constellation size	2 satellites (1 × X-band SAR, 1 × multispectral and low-light optical)
Operational constellation size	4 to 6 satellites across complementary orbital planes, mixed SAR and optical
Target orbit	Sun-synchronous low Earth orbit, 500 to 550 km altitude
Pathfinder revisit (mid-latitude priority area)	Approximately 2 to 3 days; sub-daily with full constellation
SAR resolution class	Sub-metre in spotlight mode; 3 to 5 m in wide-area strip mode
Ground segment	1 primary in-country ground station; 1 backup or cross-linked station recommended for resilience
National operator team at handover	Typically 8 to 15 personnel: satellite operators, ground-station engineers and imagery analysts
Pathfinder programme timeline	36 to 48 months from contract signature to on-orbit operations, depending on launch procurement
Time to confident independent operation	3 to 5 years from first launch

Sources

One contract, one accountable engineer

Commissioned as one programme, not a stack of contracts: spacecraft, launch, ground segment, mission control, training and handover are priced together. Source-access terms and audit rights are agreed in writing before signature. Request a programme scoping call.