Wyvern
Company Information
What Is Wyvern?
Wyvern is a Canadian space technology company providing high-resolution hyperspectral satellite imagery for Earth observation and geospatial analysis. Its Dragonette satellite constellation captures reflected light across multiple narrow spectral bands, allowing organizations to study vegetation, surface materials, and environmental conditions in greater spectral detail than conventional color imagery. The company supplies satellite data to commercial, government, and research customers working in agriculture, mining, forestry, energy, and security. Wyvern is also developing next-generation hyperspectral sensors and deployable optical systems to expand the resolution and spectral coverage of future satellite missions.
What Does Wyvern Do?
Wyvern operates a commercial hyperspectral Earth observation service using its Dragonette constellation. The satellites collect imagery in visible and near-infrared wavelengths, producing datasets that can help identify vegetation characteristics, surface material differences, and environmental changes.
The company provides on-demand satellite tasking, archived imagery, and assured imaging capacity for organizations requiring observations of particular geographic areas. Customers can acquire new imagery or use existing datasets for geospatial analysis, environmental assessment, and machine learning applications.
Wyvern also operates an Open Data Program that makes selected hyperspectral scenes available for research, education, and software development. Its data products include calibrated satellite measurements and atmospherically corrected imagery, allowing users to conduct spectral analysis without building the entire preprocessing workflow themselves.
Wyvern Technology
Wyvern develops space-based hyperspectral imaging technology that measures reflected sunlight across numerous narrow wavelength bands. Unlike conventional RGB cameras, which record broad red, green, and blue channels, hyperspectral sensors capture a more detailed spectral response from Earth’s surface. These measurements help distinguish materials and vegetation conditions that may appear similar in ordinary satellite photographs.
Its operational Dragonette constellation consists of five satellites in sun-synchronous low Earth orbit. Dragonette-1 captures 23 spectral bands, while Dragonette-2 through Dragonette-5 capture 31 bands across the visible and near-infrared spectrum. The imagery has a 5.3-meter ground sampling distance, with a 20-kilometer swath width at nadir. According to Wyvern’s September 2026 orbital data, the constellation provides an average revisit opportunity of approximately 1.2 days at the equator.
The satellites use compact pushbroom imaging sensors that record reflected light as the spacecraft moves over Earth’s surface. Wyvern processes the measurements into georeferenced imagery products, including Level-1B radiance and Level-2A surface reflectance datasets. Its processing infrastructure incorporates radiometric calibration, atmospheric correction, and standardized geospatial formats.
Wyvern is also developing Rosette, its second-generation hyperspectral architecture, with visible, near-infrared, and shortwave infrared capabilities. The company is researching deployable optics that could provide larger effective telescope apertures within smaller satellite structures, improving imaging performance without requiring proportionally larger spacecraft.
Why Wyvern Matters
Many environmental and industrial monitoring challenges require information about the physical and chemical characteristics of materials, not simply their visible appearance. Conventional satellite imagery can reveal changes in land cover, but more detailed spectral measurements can improve the identification of vegetation stress, mineral differences, and environmental disturbances.
Wyvern expands access to commercial hyperspectral Earth observation data through a constellation capable of collecting frequent, high-resolution imagery. Its services are relevant to organizations monitoring large or remote areas where regular ground measurements are expensive or difficult.
The company’s work on compact hyperspectral sensors and deployable satellite optics also contributes to the development of more capable small satellites. By offering commercial imagery and open datasets, Wyvern supports the adoption of spectral analysis in agriculture, natural resource management, environmental research, and geospatial artificial intelligence.
Wyvern Products & Platforms
Dragonette — Hyperspectral Satellite Constellation
Dragonette is Wyvern’s operational Earth observation constellation, comprising five satellites launched between 2023 and 2025. The spacecraft collect visible and near-infrared hyperspectral imagery at 5.3-meter ground sampling distance. The constellation supports commercial tasking, repeat observations, and archived imagery delivery for environmental and industrial analysis.
Hyperspectral Imagery — Commercial Data Products
Wyvern offers satellite tasking, assured capacity, and archived hyperspectral imagery for customers requiring detailed spectral measurements. Its datasets include calibrated radiance and surface reflectance products delivered in Cloud-Optimized GeoTIFF format with standardized metadata. These products can be incorporated into geographic information systems, remote sensing workflows, and analytical models.
Wyvern Open Data Program
The Open Data Program provides selected Dragonette hyperspectral scenes for public use. Researchers, software developers, and educational organizations can download imagery, explore spectral characteristics, and test analytical methods. Wyvern also maintains a Knowledge Centre containing tutorials, spectral indices, and technical information for working with its datasets.
Rosette — Next-Generation Hyperspectral Satellites
Rosette is Wyvern’s second-generation hyperspectral satellite architecture under development. It is intended to extend imaging capabilities into shortwave infrared wavelengths and support more than 110 spectral bands. The company is targeting availability in 2028. The architecture is designed to expand applications involving mineral identification, industrial site analysis, and environmental monitoring.
Deployable Optics Technology
Wyvern is developing deployable space telescope optics that allow larger optical structures to be folded for launch and deployed in orbit. The technology is intended to improve imaging resolution while reducing the size and launch requirements of hyperspectral satellites. It remains a development program rather than an operational Dragonette imaging product.
Wyvern Applications
Wyvern’s hyperspectral imagery supports precision agriculture and forestry monitoring by providing spectral measurements used for crop classification, vegetation stress assessment, forest species identification, and environmental change detection. Agricultural organizations and researchers can analyze spectral signatures associated with plant health and changing growing conditions.
In mining, energy, and environmental management, its data supports surface material mapping, land reclamation assessment, and industrial site monitoring. Hyperspectral observations can help distinguish mineral characteristics, vegetation recovery, and changes in surface conditions across large geographic areas.
Additional applications include defense intelligence, maritime monitoring, water quality assessment, and geospatial AI development. Organizations can combine Wyvern’s imagery with other satellite datasets and analytical models to investigate material differences and environmental patterns that are difficult to identify using conventional optical imagery alone.
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Frequently Asked Questions
How many Dragonette satellites does Wyvern operate?
As of November 2026, Wyvern operates five Dragonette hyperspectral satellites in low Earth orbit. Dragonette-1, Dragonette-2, and Dragonette-3 launched in 2023, followed by Dragonette-4 and Dragonette-5 in 2025. Dragonette-5 began commercial imaging operations in October 2026. The constellation provides an average imaging revisit opportunity of approximately 1.2 days at the equator.
What is the difference between Wyvern’s Dragonette and Rosette satellites?
Dragonette is Wyvern’s operational hyperspectral satellite constellation, providing visible and near-infrared imagery across 23 or 31 spectral bands at 5.3-meter ground sampling distance. Rosette is the company’s second-generation system under development, designed to extend observations into shortwave infrared wavelengths and provide more than 110 spectral bands. Wyvern is targeting 2028 for Rosette availability.
Can researchers access Wyvern hyperspectral imagery for free?
Yes. Wyvern operates an Open Data Program offering selected Dragonette hyperspectral images for research, education, and software development. Its Knowledge Centre provides technical documentation, tutorials, and a library of spectral indices. Commercial customers can also purchase archived imagery or request new satellite observations.
What is the difference between Wyvern’s Level-1B and Level-2A imagery?
Level-1B products provide calibrated measurements of radiation received by the satellite sensor, expressed as top-of-atmosphere radiance. Level-2A products provide atmospherically corrected surface reflectance measurements, which are more directly suitable for comparing the spectral characteristics of vegetation, soil, and other materials. Wyvern introduced Level-2A surface reflectance products in February 2026.
Can Wyvern satellites identify minerals and vegetation stress?
Wyvern’s hyperspectral imagery can help distinguish vegetation conditions and certain surface materials by analyzing how they reflect light across multiple wavelengths. Its operational visible and near-infrared sensors are particularly useful for vegetation analysis and selected material classification tasks. The planned Rosette system will extend coverage into shortwave infrared wavelengths, which are important for identifying additional mineral and chemical characteristics.
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