RAINBOW

Objectives of the Product

Current multispectral data are a solid input data source for agricultural services, but they cannot capture the individual spectral absorption bands that characterise the plant biochemical parameters. Those are necessary to go from crop observation to a deep understanding of the causes of what is happening in the fields, and from qualitative description to quantitative assessment, as a baseline for precision farming on a parcel level.

To be able to address the commercial needs – for accessing the huge smart farming market, for instance – a spatial resolution of 20m or better, and bands in the spectral range of 0,4 to 1,7 µm are required. Such operational, hyperspectral remote sensing data serving the requirements of enhanced agricultural Earth observation (EO) products are currently not available. A major challenge is the typical budget (volume, mass and resulting cost) of a traditional hyperspectral instrument (such as EnMAP or CHIME), leading to satellite costs that are not compliant with a reasonable commercial business plan. A filter-on-chip-based hyperspectral instrument optimised for agricultural applications is expected to solve the issue. RAINBOW is based on a cost-efficient design of the compact optical payload onboard a LEO small satellite supported by appropriate data fusion and processing.


Customers and their Needs

Farmers, farm advisors and the agricultural industry are interested in managing fields in a sustainable way, where yield is high, and inputs are low. With RAINBOW smart farming services, the causes of issues in the field, as well as the spread of the issues can be discovered, allowing precise reactions that lead to profit from stabilised yields and savings from using input resources efficiently.

Certification bodies, governmental agencies, NGOs, and carbon traders need to prove carbon sequestration in soils, for carbon certification. RAINBOW carbon maps show carbon content in soils in a continuous area-wide manner and allow a reduction in laboratory analysis as well as an increase in the temporal frequency of sampling and analysis, leading to better results at lower costs.

Farmers, farm advisors, traders, NGOs, and governmental agencies are interested in the yield quality information such as protein content, to fetch the highest prices or predict the availability of wheat yield for human consumption. RAINBOW Yield Quality Services will allow, for the first time, the prediction of not only yield quantity, but also yield quality from space, allowing farmers, NGOs and governmental agencies to better plan for the future.


Target customers/users countries

The key customer segments targeted by the RAINBOW products are farmers, farm advisors and the agricultural industry worldwide, providing detailed and topical information on the status of their crops and how to manage them best. RAINBOW addresses farmers mainly in Europe, which has the highest ratio of farms with smart farming technology on the field already, but also in North America, Africa and Australia. Additionally, we will also develop services geared towards traders, NGOs, governmental agencies and certification bodies.


Product Description

With the spectrometer-on-chip approach, the goal is to map the required spectral bands of the application 1:1 onto a transmission filter integrated directly in front of the detector. This way, the properties of the spectral channels such as spectral lineshape, are directly related to the transmission of the filter. The difference to multispectral instruments is that a larger number of channels can be observed. This is accomplished by the design of a filter, which is implemented as a ‘pixelated’ filter that reproduces a step pattern, allowing for a dedicated transmission over every column of pixels on the detector.

From the RAINBOW spectral data, smart farming products such as irrigation recommendations, yield forecasts or soil organic carbon content measurements will be generated, and a hyperspectral data cube will be produced for further customised analysis.


Added Value

The data products are addressing the sector of agriculture and data-driven farming, which has the following characteristics:

•   Is a global market

•   Needs to monitor small parcels, at least weekly, in high-resolution imagery

•   Has a very strong price competition (small cost/ha)

•   Is strongly pushing towards a smaller impact to environment (without fertilizers and pesticides, low carbon footprint, preservation of biodiversity, etc.)

•   Follows the traditional behaviour of end users

In order to be successful on the market, the availability of remote-sensing data covering the relevant area at least on bi-weekly basis is mandatory. The filter-on-chip-based instrument concept is an enabling technology that is a pre-requisite for keeping the cost for acquiring the hyperspectral data reasonably low.


Current Status

The InCubed+ de-risking activity was kicked-off in December 2022. In preparation of the activity preliminary market assessment and derivation of mission requirements have been performed. Also preliminary requirements to derive the payload design like spatial resolution, spectral resolution and radiometric performances are established. Initial design parameters for the filter and chip are defined and a candidate detector is selected. Trade-off how to mount the filter on the detector and design optimization for the telescope are required to achieve the goal of a low cost instrument design.

Radio Occultation Service, RoccS.

Objectives of the Product

The primary market is a Commercial RO Service that provides RO data for Meteorology and NWP. This is the most mature RO market, which has recently reached the point where continuous financing can be foreseen to be available for procurement of commercial RO data products.

We base our mission on a trustable solution with strong heritage. Our heritage GRAS-2 instrument has been developed, within MetOp-SG, to meet EUMETSAT requirements for RO in the coming decades. The instrument flies on a satellite with proved reliability.

  • A high-end space equipment to ensure high availability, dependability, and performance
  • Long mission durations to maintain cost efficiency of data products

Customers and their Needs

For European meteorology the accuracy increases by more occultations, the current need expressed by WMO is at least 20.000 occultations/day corresponding to 10 to 12 RO satellites with GRAS-2. ECMWF has demonstrated NWP improvements up to 100.000 occultations/day and EUMETSAT has expressed need for additional European commercial RO providers.

RO is extremely valuable for climate monitoring as it is a calibration free measurement without drifts. This means that RO observations also can be used to calibrate other data sources researched. RO observations for Meteorology can also serve climate.

RO for space weather, relate to monitoring and prediction of the ionosphere. In the long run we foresee that space weather will require more RO data than meteorology. The market is not mature yet but is under development.


Target customers/users countries

The Commercial RO Service will be sold to the customer segments where we initially will focus on direct contract with EUMETSAT and NOAA for meteorological use as both EUMETSAT and NOAA currently have budget to procure commercial RO data.


Product Description

The Commercial RO Service consists of a space segment and a ground segment. The main components of the Commercial RO Service are the GRAS-2 instrument hosted on a suitable satellite platform and the ground segment with processing and distribution of RO data products to paying customers.

The role of the Commercial RO Service in the context of the overall system/service of its target users is to provide access to global RO data of high quality with high availability and low latency. This RO data will improve the accuracy of numerical weather forecasts and will also contribute to improved climate monitoring, as well as space weather monitoring.

The external interfaces of the Commercial RO service are:

• The GRAS-2 instrument receives RF signals transmitted by GNSS satellites (Galileo, GPS, Beidou) on two frequency bands centred at 1575.42 MHz (L1) and 1176.45MHz (L5)

• The RO data user (customer) will receive Level 0 data through a User Interface Platform

• The RO data user (customer) will also receive data containing service quality indices through the User Interface Platform

Radio occultation conceptual geometry. The field-of-view of the different antennas are illustrated in green.


Added Value

Current Status
  • Requirement Review performed including
    • Definition of Instrument Adaptations
    • Mission Requirements
  • RFP issued to potential satellite service providers
    • Cover letter
    • SoW
    • Specification
  • Instrument mission adaptations initiated
  • Cloud Service Architecture initiated

PROGRES.lu

Objectives of the Product

The understanding of extreme precipitation events is of critical interest for scientists as the frequency of those events is likely to increase and as they have a direct impact on many human activities (e.g., agriculture, logistics, accessibility to water, landslides or flood prevention, natural disasters) with devastating socio-economic consequences. Those events are controlled by moisture, but there is an absence of efficient measurements of such moisture profiles when precipitation occurs. By leveraging the capabilities of the CubeSat platform and growing experience on processing and analyzing GNSS-RO Data, Spire proposes to alleviate the heterogeneity and limitation of existing sensing solutions (infrared, radar, …) with an approach that could deliver valuable precipitation data, globally, with the potential to scale to a large constellation at a cost point that is substantially lower than today’s EO missions. This would potentially lead to a better understanding of events such as tropical cyclones, as well as better validation tools for cloud and precipitation models, improving weather forecasts.


Customers and their Needs

There are 3 customer segments identified:

  • National and multinational weather agencies / research and civil protection institutions: Needing accurate precipitation information, comparable and compatible with other existing terrestrial and space-based remote sensing systems, available during rapidly evolving precipitation events. There will be varying requirements and needs among them: historical data versus current and forecast; global versus regional; data latency; operational availability, etc. 
  • Application Service Providers: Designing tools to support operations of weather-exposed industries. Some of which are already existing customers of Spire. This customer segment is more interested in an accurate, reliable and affordable source of data, notably during rapidly evolving precipitation events.
  • End Customers: Having ‘in-housed’ the development of their own applications and related meteorological products and services, looking for quality weather information to support business critical applications (Agribusiness, Insurance, Airline operators, …) facing difficulties accessing data during rapidly evolving events.

Targeted customer/users countries

Interests have been raised in Europe as well as in American and UK based
institutions.


Product description

The main product consists of vertically resolved profiles of GNSS-PRO which are sensitive to the presence of precipitation and ice crystals as well as to temperature and moisture. The data are obtained from an in-orbit demonstrator payload aboard a CubeSat. These data produced by the GNSS-PRO sensor will be generated and formatted as per Earth observation standards.

The main components of the product will be profiles of calibrated polarimetric phase delay differences and derived features consistent with the vertical structures of precipitation, as well as the conventional output of GNSS radio occultations; combined together, they enable further capacities of detection such as the cloud top height or to potentially distinguish convective from stratiform precipitation. This would lead to a new data product to be fully embedded into Spire’s full range of weather data products.

ModulesFunctions/FeaturesDescription/DesignDevelopment StatusCritical Technologies
LEMUR Satellite BusProvides hosting of the PRO sensor in spaceUse of Spire standard LEMUR busFully developed and operational across the Spire fleet. No extensive adaptations required.None
STRATOS ReceiverProcesses GNSS RF PRO signalsGNSS receiver for several systems: GPS, Galileo, Glonass and QZSSModification. The STRATOS RO system is fully developed and has flight heritage. An adaptation of the receiver software has been performed to correctly combine two polarimetric ports.RF multiband Multiservice Compressor
PRO AntennaCollects GNSS RF PRO signals, separated in H/V polarizationsAn antenna consisting of an H/V polarimetric phased array of three microstrip square patches. Sensitive to horizontal and vertical polarizations (defined as azimuth and elevation directions from the antenna point of view, respectively)New. Designed, manufactured, tested, launched, and commissioned.Microstrip technology of phased arrays
PRO DATA PROCESSING SYSTEMIngests raw PRO data and produces a) Standard calibrated RO atmospheric profiles; and b) vertical profiles of polarimetric differential phase that exhibit a robust relationship with path-integrated precipitation and/or frozen hydrometeors.Code responsible for calculating the polarimetric differential phase, for its calibration and interpretation in a vertical profile of heights. Quality check and outlier identification to reject invalid profiles.New/Modification. Partially reused code from RO standard excess phase processing and partially new code to process the polarimetric differential phase partRO inversion of refractivity. Calibration of the PRO antenna H and V phase patterns and cross-polarization effects.
Schematic of a PRO Flight Module (FM)
Schematic of a PRO Flight Module (FM)
PRO FM undergoing testing in the Spire anechoic chamber.
Deployment of Spire FM170 on SpaceX’s Transporter-7 launch
Aggregated differential phase shift profiles from Spire (differentiated by GNSS) showing the clear systematic signal of precipitation on the mean phase shift values at low altitudes.
Aggregated differential phase shift profiles from Spire (differentiated by GNSS) showing the clear systematic signal of precipitation on the mean phase shift values at low altitudes.
Comparison of differential phase shift between Spire collections and ground-based radars showing good agreement. Credit: IEEC


Added Value

Spire sees GNSS-PRO as an incipient and innovative approach to the observation and measurement of rainfall under all weather and day/night conditions, and in accordance with an overarching vision to utilize GNSS signals of opportunity to generate valuable weather products with an already proven ability to deliver in this domain. The first and only space mission to carry a GNSS-PRO payload is the Radio Occultation and Heavy Precipitation (ROHP) experiment aboard PAZ, a Spanish Earth observation and reconnaissance satellite launched on 22 February 2018. Spire will innovate beyond ROHP in the following key aspects:

  • The instrument: With a new antenna and a new multiband receiver technology
  • The integration of the instrument within a small sat platform
  • The evaluation of the potential of this new data source for assimilation models

Current Status

The activity concluded successfully following the final review on 17-October-2023.

Following the successful design and manufacturing of the PRO payload, Spire has extended its trial to include two additional satellites, FM167 and FM170, alongside FM166.

These satellites were successfully launched and commissioned on 3-January-2023 and 3-February-2023, respectively. Since then, operational data flow has commenced, with approximately 2000 PRO profiles collected daily from all three FMs, achieving a latency of only a few hours.

Noteworthy findings from the validation campaign include the demonstration of comparable quality between RO retrievals based on dual-polarizations measurements and those from RHCP measurements, making them suitable for assimilation into Numerical Weather Prediction models.

Additionally, differential phase profiles (H-V) have shown consistent positive shifts of 2-3 mm during rain events compared to no-rain events.
Moreover, on-orbit calibration of antenna patterns has yielded results consistent with ground-based calibrations, with minimal phase shift patterns (<0.5 mm), eliminating the need for further antenna calibration for the current validation scope.

The correlation between mean phase shift values (indicative of hydrometeors presence) and rain events, as determined by the IMERG product, has been established, with a notable hit rate of 74% for rain events and 90% for no-rain events based on 10,000 profiles.

Validation results have been corroborated by external collaborators from CSIC/IEEC, including comparisons against additional sensors such as ground-based radars and case studies over hurricanes, further enhancing the credibility and applicability of the findings.

Skymetry

Objectives of the Product

Skymetry’s cutting-edge monitoring services are designed to revolutionise how assets are managed across various industries. Leveraging advanced remote-sensing technologies, Skymetry offers accurate, scalable, and cost-effective solutions. Skymetry’s mission is focused on fusing together advanced remote-sensing technologies and AI annotations to assess and monitor large assets in the Energy, Infrastructure and Urban domains.

While supporting owners in safeguarding asset integrity and managing site control and planning, Skymetry also plays a key role in evaluating the environmental sustainability of these resources, determining the potential impacts these assets can generate on the surrounding territory.

  • Skymetry redefines asset maintenance and sustainability assessment by delivering 4D-geospatial SaaS Solutions that match high-resolution maps, deep historisation, high geospatial accuracy and informed decision-making tools while embracing a broadened view of the asset.
  • Skymetry is specifically designed to promote seamless data acquisition integration from multiple Earth Observation (EO) sources, either airborne (UAVs, aircrafts) and spaceborne (satellites). Furthermore, it streamlines the processing and publishing of AI-assisted virtual investigation tools.

Benefits:

  • Asset Monitoring Effectiveness: Skymetry Monitoring Services provide comprehensive coverage and timely detection of critical asset evolutions, enhancing asset management and risk mitigation.
  • Cost Efficiency: by optimising data usage and leveraging AI-driven analytics, Skymetry ensures efficient resource allocation in the data-gathering phases, resulting in cost savings for our clients.
  • Seamless Integration: Skymetry Monitoring Services are designed to seamlessly integrate and complement the clients’ existing GIS legacy systems, enhancing operational workflows and data accessibility.
  • Enhanced Decision-Making: Skymetry AI Services provide accurate insights, enabling informed decisions to be taken with confidence.
  • Operational Efficiency: Skymetry AI-driven solutions streamline workflows and optimise resource allocation.
  • Real-Time Insights: Skymetry timely issues qualified insights about changing conditions and emerging trends, for proactive decision-making.

Customers and their Needs

Skymetry’s solutions are tailored to meet the specific needs of each served industry vertically.

Skymetry Services have been tailored according to vertical user-needs expressed by operators within the Energy, Infrastructure, Environmental Protection and Urban Planning domains.

Thanks to the experience acquired by DigiSky over the past 10 years, Skymetry’s uniqueness lies within the native integration and combination of all possible EO sources into a single end-to-end SaaS platform that competitively delivers insightful 4D AI-enabled reports, which can be directly integrated into the operational workflows of infrastructure owners and governmental agencies.

In the Energy sector, Skymetry Services optimise infrastructure monitoring in the power generation and transportation, contributing to their sustainability and efficiency.

In the Infrastructure domain, Skymetry Services provide in-depth inspections to ensure resilience and safety. In pre-construction phases, Skymetry provides accurate Digital Twins which are at the foundation of the digital design and simulation.

Thanks to Skymetry Environment solutions, ecological changes can be monitored to safeguard natural resources and assess hydrogeological risks.

In Urban Planning, Skymetry empowers the envisioning of how the “as-built” context can be evolved while extracting BIM-ready models. Skymetry Services ensure that clients gain actionable insights to improve operations and achieve sustainable outcomes.


Targeted customer/users’ countries

The Skymetry SaaS product is designed to serve four primary customer segments:

  • Infrastructure operators (transportation, gas, water)
  • Energy providers and utilities.
  • Urban planners and municipalities.
  • Environmental agencies and organisations.

Clients in these sectors can benefit from Skymetry’s user-friendly web-GIS interface to place georeferenced orders to monitor their assets.

By integrating EO data, Skymetry ensures continuous monitoring of areas of interest, while acting as “magnifying lens”, whenever required.

Through advanced change-detection AI algorithms, the aerial inspections are triggered, using certified general aviation aircrafts equipped with high-resolution sensors (RGB, SAR, TIR, LiDAR, Hyper-Spectral). This combination of EO sources and observation bands enables superior monitoring insights, while optimising operations time and costs through selective and automated data-gathering strategies. Besides relying on existing EO sources, Skymetry competitively supports innovative spaceborne payloads vendors and upstream nano-satellite OEMs with atmospheric testing, de-risking and calibration services (SkyGate), thus contributing to the development of the EO upstream segment in New Space Economy.


Product description

Skymetry provides advanced monitoring services that combine satellite, aerial, and AI-driven technologies to offer precise, real-time insights for industries operating in the energy, infrastructure, environment, and urban planning fields.

Skymetry Services enable the transition from traditional ground-based monitoring methods to remote-sensing practices, by providing an integrated virtual inspection environment co-piloted by AI.

Skymetry is an integrated end-to-end SaaS solution for monitoring operations that automatically tasks the most suitable EO sources relevant to the target asset and release AI-based reports that co-pilot very-high-definition virtual inspection operations within an integrated web-GIS environment.


Added Value

Skymetry acts as an end-to-end solution with various advantages:

  • Easy Asset Selection: by entering Skymetry native SaaS WebGIS, clients can easily select their preferred target areas or assets and activate a tailored monitoring process.
  • Fully Automated Monitoring Process: for all activated targets, Skymetry automates all monitoring steps, including the multi-source data gathering and the editing of reports, ensuring relevance and efficiency throughout the entire monitoring process.
  • AI-Enhanced Insights: Skymetry leverages precise AI models to generate geo-referenced status reports for all monitored targets, securely delivering them to clients through an intuitive 3D visualisation SaaS platform.

Current Status

This activity is completed.

DigiSky has been capable of obtaining noticeable achievements over the years in its core markets and in various regions.

Having designed and certified a proprietary avionic solution (SmartBay®) which enables any general aviation aircraft to be easily transformed into a special mission airborne data-gathering tool, DigiSky has enabled the possibility of rapid geographical scalability of aerial operations through affiliated partners, to complement available EO sources.

Skymetry Services are currently addressing commercial and pilot programs in the following domains and regions:

  • Solar-Power generation                         (3 projects, EU)
  • Motorway/Rail Infrastructures                 (9 projects, EU)
  • District Heating                                      (5 cities, EU)
  • Gas Distribution                                     (2 projects, EU)
  • Water Distribution                                  (4 projects, EU)
  • Pre-construction BIM digitalization          (2 projects, EU)
  • Urban Planning                                     (4 projects, EU+MENA)
  • Hydro-Power generation                        (2 projects, EU)
  • Hydrogeological risk                              (6 projects, EU)
  • Environment Impact                              (1 project, EU)
  • Forestry                                                (4 projects, EU)
  • Glaciers                                                (4 projects, EU)

In Solar Power generation, Skymetry is steadily serving over 4GW of installed capacity across Europe.

HiVE

Objectives of the Product

constellr, a European leader in thermal intelligence and satellite technology, provides unparalleled insights into Earth’s resources and land use through proprietary space-based infrared detection. Using high-precision Land Surface Temperature (LST) data, the key objective of constellr’s product is to empower stakeholders with real-time thermal insights to proactively address challenges in agriculture, urban planning, and infrastructure management.

Temperature is a critical variable for understanding stresses and anomalies in ecosystems, urban zones, and infrastructure. By providing early detection of issues such as crop stress, urban heat patterns, and infrastructure vulnerabilities, constellr’s thermal intelligence enables precise interventions to mitigate risks and optimise outcomes. These actionable insights support yield predictions, policy development, and supply chain optimisation, ensuring smarter, data-driven decision-making.

To achieve this, constellr employs hyper-scalable cloud infrastructure and a global network of ground stations. This advanced delivery system minimises latency between satellite measurements and actionable data, providing users with near-real-time access to critical information.

By harnessing thermal intelligence, constellr aims to revolutionise how industries manage resources, ensuring sustainability, resilience, and efficiency across the globe.


Customers and their Needs

constellr serves customers across agriculture, urban planning, infrastructure management, and sustainability, addressing critical challenges with precise thermal intelligence data.

In agriculture, agribusinesses use constellr’s real-time thermal intelligence atlas to monitor crop health, soil moisture, and early signs of stress. By enabling targeted irrigation and proactive measures, constellr helps optimise water use, reduce waste, and improve yields—key to sustainably feeding a global population projected to reach 10 billion by 2050.

Urban planners rely on constellr’s data to identify urban heat islands and develop cooling strategies, such as adding vegetation or improving materials, to create more sustainable and climate-resilient cities. The data also informs infrastructure designs that adapt to local microclimates, reducing reliance on energy-intensive cooling systems.

For the infrastructure industry, constellr’s thermal monitoring identifies vulnerabilities in transport networks during extreme weather, enabling preventative maintenance and reducing costly emergency repairs.

In sustainability, policymakers and conservation agencies depend on constellr’s insights to monitor carbon sinks, track offset projects, and regulate emissions. This data ensures accountability in climate action and supports global efforts to meet carbon reduction goals.

constellr empowers stakeholders across sectors with actionable insights to address resource challenges, build resilience, and drive sustainable practices.


Targeted customer/users countries

Pan-Europe: smart farming stakeholders for whom data and farm management information systems are the norm (Germany, Netherlands, France, Spain, Turkey, etc.). Beyond Europe, the key global agricultural production areas include, but are not limited to, the USA, South America, the Middle East (Israel), Asia (Turkey) and eventually Sub-Saharan Africa.


Product description

constellr’s real-time global thermal intelligence atlas revolutionises sustainable management by leveraging high-precision Land Surface Temperature (LST) data. Acting as a “digital twin” of Earth, it delivers actionable insights into vegetation, urban zones, and infrastructure, enabling better prediction and management of natural and human systems through accessible, biophysical data-driven solutions.

constellr’s customers can subscribe to data for their AOI, with cost being a function of area size, revisit frequency, and timeliness (latency). Recorded data in the thermal infrared and VNIR spectral regions are downlinked, processed to Level-2 Land-Surface Temperature, and then delivered via API to the ordering customer.

constellr’s TIR payload uses proprietary design elements in cryocooling sensors, high-performance thermal systems and optics to miniaturise traditional TIR sensor payloads to the size of more agile microsatellites. Novel operational concepts such as “virtual calibration” (VCAL), reduce space segment costs massively. Our data distribution platform further leverages the cost benefits of hyperscalable cloud technology to distribute our critical data to a global customer base.


Added Value

Accessing high-quality geospatial data is often challenging due to high costs, complexity requiring specialised expertise, inconsistent availability that limits trend mapping, and low resolution, which restricts precision applications like targeted irrigation.

A new approach to thermal measurement addresses these barriers through space-borne sensors that deliver high-precision temperature data. Unlike traditional methods such as drones or planes, this technology provides continuously updated data, enabling near real-time trend mapping and rapid responses to temperature changes. This makes it particularly valuable for climate adaptation, water resource management, and sustainable agriculture.

The system is also cost-effective compared to traditional terrestrial monitoring methods. By combining orbital data with ground-based sources and presenting it in an accessible format, the solution reduces both financial and technical barriers, making advanced geospatial insights more widely available.

This approach offers a practical and scalable way to monitor and manage environmental and infrastructure systems, providing the actionable insights needed to address global challenges and improve resource efficiency.


Current Status

The de-risking activity kicked-off in April 2022. The proto-flight model (PFM1) manufacturing is completed and has completed its final environmental and functional tests. Launch is planned for the first quarter of 2025 via the Falcon 9 Transporter 12 mission.  

UKKO

Objectives of the Product

Although all satellites have flight software, most of them are strongly architected around hardware, adding software at the last stages of development, as if it were an afterthought. This makes the solution rigid, incapable of change and less “smart”. On the contrary, software-defined products, as the name implies, have software as the architecture foundation, thus providing a step change in terms of efficiency and flexibility.

ReOrbit is building “Muon”, which is a bundle including flight software together with avionics hardware, to act as the backbone of the spacecraft. Similarly to what an operating system does for computers or smartphones, ReOrbit Muon enables customers to focus on the (Earth Observation – EO) application, without having to look into the underlying layer that is the connection between application and satellite. The Muon bundle can be installed aboard any satellite, enabling a breadth of capabilities and therefore augmenting EO missions and beyond.

Muon is the heart of ReOrbit’s “Gluon”, which is a small satellite platform optimized for connectivity and autonomy. By combining the reliability-first approach of “traditional space” with the time-to-market, cost-effectiveness, and innovation of NewSpace, ReOrbit can offer an attractive and powerful satellite platform to its customers. What is more, ReOrbit Muon includes a full digital twin: a digital replica of the Gluon platform, which allows customers to de-risk their capital expenditures at a very early stage of the mission, as well as train their operators and plan flight procedures.


Customers and their Needs

ReOrbit’s main customers are satellite operators and satellite manufacturers serving communications and EO segments, although ReOrbit’s mission-agnostic approach can be applied easily to most customer needs. ReOrbit is especially attractive to EO payloads that require fast and affordable access to orbit, and those with satellites approaching end-of-life within the next 2-3 years.

Indirectly, applications using satellites developed and operated by downstream customers benefit from more efficient data handling enabled by the ReOrbit satellite platform, which minimizes the cost of data over time. Data companies dependent on space-produced data but with limited spacecraft expertise benefit from ReOrbit’s offering.

Customers can either purchase ReOrbit’s flight software and avionics to be installed on top of their satellite platform as a bundle, or they can purchase the complete satellite platform with all required subsystems in place. In the Ukko activity, customers are involved in the product management feedback loop, so that development matches their needs and thus the overall needs of the market with regards to flight software as well as mission and satellite simulation.


Targeted customer/users countries

ReOrbit’s market is global, and global are our current customers as well.


Product description

ReOrbit Muon is a satellite flight software stack and avionics bundle, which can be seen as a set of services for the satellite. Similarly to what an operating system does for computers or smartphones, ReOrbit Muon enables customers to focus on the EO application, without having to look into the underlying layer that is the connection between application and satellite. The different features of ReOrbit Muon, developed as separate libraries and modules, consolidate into an Application Protocol Interface (API) which interacts with the different EO payloads.

Based around Muon, ReOrbit Gluon is a complete satellite platform with all the subsystems in place to carry and operate a payload in orbit. 

Muon & Gluon enable connecting several EO spacecraft together in coordinated constellations, capable of autonomous and synchronized work, coupled with seamless data flow inside and between the satellites, as well as to ground segment.

Customers can either purchase Muon to be incorporated on their own satellite platform, or they can purchase Gluon as a full-fledged satellite platform. In addition, customers get the digital twin of the purchased hardware to a simulator provided by ReOrbit, which allows the customer to de-risk their mission, train their operators, test updates on the flight software configurations and plan procedures related to their mission.

The software and avionics stack is designed to ensure at least 2.5Gbps data flow across its architecture, and to autonomously perform corrective measures to guarantee a 95% uptime or system availability. The product architecture of ReOrbit Muon, showcasing also the connectivity between different Muon-powered satellites, can be seen in the following image:

The Payload Data Flow Management module (PDFM) ensures that EO data is stored and transferred efficiently and error-free from multiple sources to multiple sinks within the architecture.

The Attitude Determination and Control System (ADCS) is designed to be actuator- and sensor –agnostic, and allows operators to have a common set of control laws across their constellations, with the possibility of managing a diverse ecosystem of ADCS equipment and tailoring their needs according to mission requirements.

Failure Detection, Isolation and Recovery (FDIR) ensures that off-nominal conditions will not spread and escalate into mission-critical failures. The FDIR module contains self-diagnostics capabilities to flag long-time off nominal trends and perform automated corrective actions to increase uptime.

The Autonomous Flight Control and Station Keeping module ensures spacecraft maintain orbital geometry with minimum use of humans in the loop. The API implements a request-response protocol all customers flying ReOrbit Muon can interact with from their own on-board computers to access to Ukko services. The API runs fully inside the Muon bundle.


Added Value

The core value for customers comes from enabling a satellite that is flexible and configurable, reducing time-to-orbit, cost-to-orbit and operational costs. ReOrbit is able to achieve this by:

  • Integrating standardized and flight-proven satellite subsystems to reduce non-recurring engineering and lead time of the full satellite by means of adopting standard, modular form-factors and data interfaces
  • Incorporating 3rd party applications on top of the flight software with no increased operational risk
  • Offering fully automated operations and high fault tolerance, for increased satellite lifetime and less time required by mission managers for constellation monitoring and error handling
  • Offering in-orbit connectivity that enables higher data throughput and more efficient flow of data by interoperating and networking with other satellites

In addition, we increase the overall revenue for our customers by ensuring high satellite availability (optimizing uptime), autonomous fault recovery, full on-orbit reflashability, and having a reliable architecture which includes rapid switchovers and continuous data scrubbing.


Current Status

Ukko is a development and demonstration project that aims to develop specific features and capabilities of the ReOrbit software which are instrumental to high performance EO platforms. The different features, developed as separate libraries, are accessed through the API, which interacts with the various EO payloads.

Ukko activities consist of the detailed design definition, development, and verification of the system (simulation and library components), as well as the detailed definition of internal and external interfaces, the integration and verification of the entire API with EO test cases. On the commercial side – market analysis, partner engagement, and business case development activities to mature the product commercially. Ukko results showcase the maturity and quality of ReOrbit’s product Muon.

BulletInSAR

Objectives of the Product

By using satellite radar sensors (e.g., Sentinel-1, COSMO-SkyMed and COSMO Second Generation, TerraSAR-X), it is possible to obtain mm-accuracy displacement data from Space, without having to install anything on the ground. InSAR technology has rapidly advanced to become a standard tool for measuring ground deformation phenomena.

Fast standard reports about trends and changes of the ground surface – also known as “bulletins” – showing movements ranging from mm to cm, are nowadays produced through a supervised process, after each new satellite acquisition.

Bulletins are currently sold to those customers who are committed to frequently monitoring fast changes occurring in the asset of interest. Target markets are the Mining sector, O&G, and Natural Hazard in the case of abrupt events (volcanic events, post-Earthquake).

According to the clients’ feedback, bulletins must have a dramatically faster delivery time, a clear description of the reliability of measurements, a cost reduction in the view of scalability. Along with these, requirements about the User’s Experience (bulletins visualization and browsing) are stressed.

The BulletInSAR activities aim to enhance the production of bulletins through a ML-based unsupervised process to match the market’s requirements of timeliness, reliability, scalability, and user-experience.


Customers and their Needs

Deformation Fast Reports (Bulletins) are currently delivered to the market.

The Clients’ Community, made of large international groups managing several assets worldwide, while appreciating the impact on their activities, provides feedbacks on critical factors today limiting an effective day-by-day application to the monitoring of their assets. Customers’ needs touch the following critical points:

  • Delivery time in a few hours
  • Delivery time to be compatible with the forthcoming new generation of constellations characterized by fast revisiting time
  • Output to be described in terms of measurements reliability

Production time and cots to be applicable to systematic use over several assets


Targeted customer/users countries

Worldwide


Product description

The Bulletin product currently consists of Fast deformation Reports, derived from a pair of SAR acquisitions and semi-automatically delivered to the Client using the web-based tool TREmaps®.

Bulletin production starts from the following inputs:

  • Interferometric SAR pair (T1 and T2) over the AOI
  • a Digital Elevation Model of the AOI (SRTM is the standard input, other DEMs if available)

and consists of a collection of three information layers:

  • Visibility Map Analysis
  • Change Detection Analysis
  • Displacement Analysis
    • Differential Interferograms (displacement magnitude: centimetres)
    • Speckle Tracking (displacement magnitude: tens of centimetres up to metres)

Added Value

Bulletins are already considered a valuable tool by our clients: their request is to extend this kind of projects to a higher number of assets worldwide. To cope with this request, BulletInSAR improves the product in terms of:

  • Timeliness
  • Information about measurements reliability
  • Scalability
  • User Experience

Current Status

After the demonstration phase, consisting of two pilots activities with to two Users
using C and X band data, both in Ascending and Descending passes, the BulletInSAR
project is now completed.

The demonstration phase has shown how the new ML-based designed product
matches the Users’ expectation both in terms of informative content (reliability) and
in delivery aspects (timeliness, scalability, user experience).

BulletInSAR product is part the of the Sales portfolio and is currently proposed to the
Mining Industry clients.

A CCN1 is ongoing with the aim of designing and testing a Van Atta array artificial
reflector.

TESLA VISION (TV)

Objectives of the Product

The global trade scenario is rapidly changing due to new geopolitical arrangements and global emergencies. Around 90% of the worldwide traded goods are shipped by sea, hence its critical infrastructures are more than ever a valuable and strategic asset for every country. In this context, the clear need of a high-responsiveness and more efficient maritime traffic monitoring lead to the exploitation of newly available solutions exploiting cost-efficient satellite infrastructures. Indeed, the main objective of TESLA VISION is the geolocation of Radio Frequency sources in order to provide valuable services, such as:

  • Asset Tracking;
  • Border and Custom control;
  • Environmental monitoring;
  • RF Spectrum monitoring;
  • Data for Geo Marketing and Analytics.

Customers and their Needs

TESLA VISION addresses the need of reliable “anytime, anywhere” data and information, on both cooperating and non-cooperating vessels, of two different customers segments:

  • Maritime Traffic Surveillance: public authorities (Customs, Regulation Authorities, Environmental Agencies, Law Enforcement, …), maritime shipping companies and NGOs (National and Internationals rescue organization, …);
  • Value Added Service Providers (VASP): Geo-information, Geo-Marketing and Analytics companies.

Target customers/users countries

National and European public authorities, international commercial companies and NGOs.


Product description

TESLA VISION provides timely and reliable data and information on maritime traffic via a user-friendly web-based platform. Thanks to its cutting-edge technology, the system is able to geo-locate maritime Radio Frequency sources from satellite anytime of the day and anywhere on the Globe while enabling the monitoring of non-cooperating ships, the so-called dark vessels.

The user data access system consists of three components:

  • A Web-GIS commercial portal that provides all graphical user interfaces, procedures and web services so that users can access the system functions using AI driven processor to reduce data storage and post processing elaboration time. The web tools allow users to request a dataset (which can be both Basic RF Sources and processed data) that meets their needs for coverage of a specific area in a certain time interval.
  • A QGIS plug-in to use most of the graphical user interface for requesting data and their processing in the QGIS desktop GIS software.
  • OGC Standard Services in order to access basic RF sources data and processed information via OGC standards such as Web Map Service WMS (WMS).

Show the product/system architecture (on a high level), highlighting the main system building blocks (on a high level).


Added Value

The detection of Radio Frequency sources from space is not yet widespread in civil applications but it is increasingly required as a solution for customs control and monitoring of protected or prohibited areas. It is a formidable tool when integrated with other data sources and systems such as AIS or satellite images acquired with SAR technologies. RF data are a powerful source of information complementing other data sources.

Thanks to the use of AI and a miniaturize payload, TESLA VISION is able to timely and accurately identify and localize the RF source anytime and anywhere using just a single satellite. This allows the lowering of production, launch and operations costs as compared to competitors. Furthermore, the use of an SDR architecture ensure flexibility by enabling the updating of the on-board processing software during the mission in order to address new requirements and increase performances.


Current Status

TESLA VISION is currently performing the de-risking phase. Details of the system are defined using a user-driven approach, thus by continuously discussing with prospects, in order to better and consistently prepare for the product development phase.

ATON

Objectives of the Product

The need for ocean awareness through Space was highlighted in the 30th Anniversary of the UN Convention on the Law of the Sea, 2012. A taskforce was created in the European Space Agency to address these specific needs and opportunities, the Blue Worlds Task Force. The need is also identified by the Portuguese government in the National Strategy for the Sea (ENM2030), as it can leverage the national space industry and create indirect economic benefits. Identified through differente surveys, the needs are grouped in three segments: Maritime Surveillance, Aquaculture & Maritime Environment and AIS data. The current world context requests for EU countries and countries themselves to be independent in collecting valuable information, and food-chain and environmental concerns have demonstrated growing potential interest. ATON constellation follows a low-risk and cost-efficient approach to meet these user needs by leveraging on mature platforms and technology and effectively framing the requirements. This is achieved with Lusospace 20 years’ experience in the space sector and partnering with key players in the sector (AAC Clyde Space, GMV, AIR Centre) and national authorities (Portuguese Navy). The product is a near end-to-end solution, from Space segment to data delivery through a services center.


Customers and their Needs

The customers are segmented in three: Maritime Surveillance, Aquaculture & Maritime Environment and AIS data.

For maritime surveillance, the activity involved Portuguese Navy and GMV, the former being a potential customer that aids in requirement definition, and the latter a key player in maritime surveillance solutions. The Portuguese territory has over 2 000 km of coastline and an exclusive Economic Zone (EEZ) of around 1.7 million km2; and is currently waiting for an update of this EEZ to 3.8 million km2. For security and sovereignty reasons, it’s becoming increasingly valuable to have EU providers of data and services, ensuring that the exchange in information is secure. Low revisit-times and possibility to customized areas of coverage add significant value according to potential customers, such as the Portuguese Navy. This applies to other national authorities within EU and others.

Aquaculture segment addresses the estimated loses of 2B€ due to Harmful Algae bloom events. This is a market to be uncovered but according to the surveys performed by partner AIR Centre, the need to purchase such services exist and customers are willing to pay. The hyperspectral payload allows also to monitor maritime environment for R&D institutions and complement other existing products that have higher revisit-times. The third segment addresses AIS data. There is a market push to obtain more data and entities such as EMSA and ORBCOMM confirmed the interest in buying such data. VDES technology will be a market disruption and the constellation has the means to use it and test it with early adopters.


Targeted customer/users countries

Portuguese Navy and other national authorities within EU and others.


Product description

The end product are services and data to three segments of customers: Maritime Surveillance, Aquaculture & Maritime Environment and AIS. This is achieved by a space segment: 32 or 2 x 16 satellites, one type with AIS/VDES payload and other with a Hyperspectral camera. The ground segment is outsourced to increase focus and decrease time-to-market.


Imager (16 Hyperspectral sats)

Added Value

The main added value for ATON project is combination of low revisit-times, hyperspectral imagery, AIS/VDES technology, and the novelty services that can be provided to Aquafarmers, that address the imensous fishery losses due to harmful algae bloom. The aggregated approach, which is based on near end-to-end vertical integration – from space segment to the services center – allows a control on the end product and possibility to customize it for the customers. It does not aspire to compete with large institutional satellite hyperspectral payloads, freely availalbe, but it can through DsaaS integrate different sources of data and provide images within 6h intervals. It is important to consider that the new generation Sentinel should be availalbe not sonner than mid 2030, therefore this activity time to market is an important factor.

In what regards the AIS data, the constellation provides data collected and controlled by a EU supplier (Lusospace), which is by itself a desired aspect, and has the potencial of capturing early adopters of VDES technology. VDES can alleviate the data strain on the AIS, and the international maritime community has started the steps to regulate the technology. This radio communication standard maintains the AIS functions while adding the capacity for larger data exchange. VDES establishes dedicated frequencies for bidirectional communication. Additional capabilities of VDES include autonomous shipping which will be a market disruption, leading to safer shipping and more fuel efficiency.


Current Status

De-risking activity concluded. Next steps being planned with ESA involvement.

OroraTech’s Global Wildfire Warning

Objectives of the Product

Late detection of remote wildfires heavily contributes to global warming, as they emit tons of CO2 into the atmosphere. Most of the damage caused by fires is due to extreme wildfire events, which account for about 2% of the total fires. Prevention, quick detection, and real-time monitoring of wildfires are therefore essential.

Existing non-space solutions for wildfire detection (watchtowers, camera systems, drones, helicopters, and wireless sensors) are often inadequate and financially unviable, especially for monitoring larger forest areas. Space-based solutions could theoretically close this gap, but available solutions on the market suffer from a lack of accessibility, usability, and data sources.

We identified a clear need on the market for an all-in-one global wildfire detection, alert, and monitoring service based on all available data sources (space and non-space). This led us to develop our Wildfire Solution (WFS) platform, a progressive web app that is already on the market and incorporates more satellite data sources than any other system. This solution offers multiple overlays (e.g., weather, terrain, wind) based on customers’ input and enables early detection of both extreme and minor wildfire events worldwide.

However, existing satellite data sources are only partly sufficient, primarily due to data gaps in the afternoon, when many fires ignite. This leads to the need for more thermal-infrared satellite data, especially at local afternoon times. The ongoing miniaturisation of satellites and their payloads offers the right solution to address this problem. Therefore, we are closing the current thermal-infrared satellite data gaps by placing our miniaturised thermal-infrared imager in low-earth orbit to complement the existing satellite data sources. This activity brings us closer to our mid-term goal of launching our so-called minimum viable constellation of about 14 nanosatellites, placed in a sun-synchronous orbit at local afternoon time to close a gap of around 6 hours, where currently no space-based wildfire data exists. This gap is critical for our customers, as the occurrence of wildfires peaks exactly at that time. This orbital thermal sensor network can then be complementary to existing larger missions.

Wildfires’ environmental, economic, and societal problems show a clear need for an all-in-one downstream service for wildfire management based on all available data (space and non-space). New satellite data is needed to address the problem of insufficient revisit times and resolution. We believe that our end-to-end solution strongly addresses this problem and can be the solution globally.

OroraTech’s orbital thermal sensor network

Customers and their Needs

The key customer segments targeted by our product are in the B2G (public) and B2B (private) sectors. Governments, fire services, commercial forestry companies, insurance companies, and environmental organisations are among the most important users of our Wildfire Solution.

In B2G (business to government), the problems and needs of wildfire services are already well understood by OroraTech, as we already have paying customers within this segment. Besides having more accurate short-term fire risk assessments, early fire detection and a real-time overview of fire spread are two needs identified in this group.

In B2B (business to business), commercial forestry has been the early adopter of our system. Faced with similar challenges as the public sector, commercial wood and pulp producers usually have a denser network of fire detection technologies and staff in place. The costs of each hectare lost to fires can directly be translated into willingness to pay for enhanced prevention measures and faster early detection.

One of the most promising sectors is the insurance industry (direct insurers, insurance brokers, re-insurers) with a specific demand for high-quality data, reliability, and proven track records. Active fire monitoring is regarded as less of an issue compared to sophisticated fire risk analyses and improvements for more efficient damage evaluations.


Targeted customer/users’ countries

Wildfires are a global problem. Therefore, we want to provide our Global Wildfire Detection Network to any potential customer in any country around the world.


Product description

Our goal is for the Wildfire Solution to offer the lowest latency for wildfire detection and monitoring on the market and create a network of our own proprietary nanosatellites. This can be translated into a significant improvement in our offer to customers: we can prove the quality of our data and demonstrate the viability of using nanosatellites for low-cost supplementation of thermal-infrared data from space.


Added Value

Our current Wildfire Solution aggregates most satellite data sources on a global scale, standing out in comparison to existing publicly available downstream service solutions. As a result, detection times are lower, and monitoring capabilities are higher.

Direct fast alerts and updates are automatically sent to users for their area of interest, enabling them to deploy fire suppression resources optimally. Innovative features like the hotspot-fusion of all gathered data, fire spread predictions,and the easy-to-use overlays of wind, weather, and other data differentiate us from what is available on the market. Unlike other solutions, we also incorporate non-space data sources from our customers, like automated cameras and other sensors. All our development is thereby closely coupled to the feedback of our customers and thus answers the demand on the market (co-creation concept).

Concerning solutions on the market that build upon non-space data sources, we can offer higher scalability and more cost-efficient coverage of larger areas. Each of the existing solutions can only cover a very small part of Earth’s land and thus is inadequate and financially unviable when it comes to larger areas, like countries, or even the whole planet.

Furthermore, there are also several areas of innovation for our multispectral thermal infrared imager: it is miniaturised for the volumetric constraints of a CubeSat. It can sense mid-wave as well as long-wave infrared radiation, which makes it the ideal choice for detecting high-temperature events like wildfires. As data delay is significant for our customers, we have developed a GPU-based processing module for on-orbit wildfire detection (classical and AI algorithms possible). Another key-innovation of our R&D complements this: an inter-satellite modem, which allows the near-real-time downlink of key parameters of the detection, cutting down the delay of wildfire alert dissemination from several hours to minutes.


Current Status

As of today, Wildfire Solution aggregates most satellite data sources on a global scale, standing out in comparison to existing publicly available downstream service solutions.

Data from our two proprietary orbital sensors and 23 existing satellites are processed, merged, evaluated, and made available on a user-friendly interface. This significantly accelerates, digitises, and simplifies the process of wildfire detection and monitoring.

The launch of our proprietary sensors with FOREST-1 in 2022 and FOREST-2 in 2023 was a monumental step in the growth of our CubeSat design and execution, with the cameras being validated through orbital testing and data accumulation. Our next-generation sensor, FOREST-3, is now, after extensive testing, ready for launch. This imager will feature our advanced multispectral thermal infrared camera and upgraded technical hardware for long-term orbital thermal imaging. Recently, FOREST-3 closed its Qualification Acceptance Review with ESA. With the closure of the QAR, the assembled flight system was delivered for integration into the deployer at the end of August. This platform will be used as an in-orbit demonstration for our upcoming constellation.


The launch of FOREST-3 is scheduled for November 2024.