Low Earth Orbit analysis
Propagate and analyse orbital behaviour across the LEO regime. Model multi-body gravitational effects, atmospheric influences, and propulsive maneuvers with physics that is verified against independent reference data.
KnownX MPT is an orbital simulation and mission planning tool built on a TLE-validated physics engine. Work from mission context, adjust what matters, and export technical outputs you can cite, with the KnownX Mission Companion alongside to answer questions and prepare changes for your review.
KnownX MPT is designed for the engineering work that defines a Low Earth Orbit mission: analysis, planning, validation and reporting, all on a physics foundation that is verified, not assumed.
Propagate and analyse orbital behaviour across the LEO regime. Model multi-body gravitational effects, atmospheric influences, and propulsive maneuvers with physics that is verified against independent reference data.
Design mission scenarios around your operational context. Define spacecraft characteristics, orbital parameters, and constraints. Adjust assumptions and see the impact of each change in real time.
Compare propagation results against documented orbital records using public TLE data from Space-Track and CelesTrak. Measure position divergence and correct models before advancing milestones.
Determine satellite visibility windows, ground contact periods, and coverage zones for your specific constellation or single-satellite mission parameters.
Generate professional technical outputs including trajectories, timelines, and comparison data. All exports are traceable to the propagation parameters that produced them.
Visualise complete missions in a time-dynamic 3D environment. Orbital paths, ground tracks, and geometric relationships are rendered from the same physics engine driving the analysis.
KnownX MPT follows the sequence mission teams already work in. Each step produces the inputs the next one needs, with validation along the way.
Define your mission
Configure the models
Run and validate
Export and decide
Each capability is described by what you can accomplish with it. The engine, architecture and validation method are covered in the help.
Propagate orbits with validated physics for any LEO scenario. The engine handles multi-body gravitational effects, propulsive maneuvers, and atmospheric influences — all verified against independent reference data.
Validate propagation against public TLE data from Space-Track and CelesTrak. Import a documented satellite, run the same propagation in the KNOWN engine, and measure position divergence as a quantitative result.
Define spacecraft characteristics, orbital parameters, time windows, and constraints. Adjust assumptions freely — the engine recalculates and surfaces the impact of each change. Scenarios are preserved across sessions.
Export trajectories, timelines, comparison data, and analysis results in standard formats. Customize reports to highlight the metrics that matter. All exports are traceable to propagation parameters and validation sources.
Watch missions unfold in a time-dynamic 3D environment. Orbital paths, ground tracks, and geometric relationships are rendered from the same physics driving the analysis — what you see is what the model calculates.
Automate workflows and integrate with existing engineering tools via the API. Programmatic access to scenario creation, propagation control, and data retrieval enables KnownX MPT to function within your systems architecture. Available with Enterprise tier.
An AI assistant built into the workspace, in a panel beside the simulation. It works from the mission you have open, answers in plain language, and prepares changes that you apply or dismiss.
The spacecraft and bodies in the scenario, propellant, mass and engine figures, the force models switched on, the mission sequence, the predicted trajectory, any closest approach, and how far the run has been validated.
About this mission, about why the simulation is behaving as it is, or about orbital mechanics in general. It quotes figures from the mission with their units.
Ask for a burn, a launch sequence or a change of settings and it prepares the steps. Each proposal appears as a card you accept or reject. A plan of several steps is accepted once, as a whole.
Before proposing a manoeuvre it works from the propellant, mass, specific impulse and thrust available. If what you asked for cannot be done with what the craft has, it says so and says what would be needed.
A proposal stays a proposal until you accept it, and you can dismiss it instead. The run, the sequence and your recorded data change only when you say so.
The Companion needs an internet connection. It reports validation status as the workspace shows it. More in the questions and answers.
Every edition runs on the same validated physics engine. Paid editions are licensed per seat, and one seat is one computer running KnownX MPT.
14-day trial
Full-featured evaluation access to assess KnownX MPT for your use case.
Contact for pricing
Education edition for universities, research programmes and students through their institution.
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Full capability suite for professional engineers, analysts and mission planners.
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Multi-seat deployment with priority support and invoiced billing.
Prices are before tax. Any tax that applies is shown on your quote and invoice.
There is no checkout to fight with. You deal with a person, and every document is sent to you as a link and a PDF. After that, your invoices, seats and renewal are in your customer account.
Ask for a quote
Accept it online
Pay the invoice
Activate
More detail on licences, renewals and payment is in the questions and answers.
Help for using KnownX MPT, papers on how it works, and what changed in the current release.
How to install and activate, three short tutorials, how each model works, and the reference for every capability.
Mission planning with KnownX MPT, how the Mission Companion works with the engineer, and how propagation accuracy is validated.
The highlights of the current release, and the full release notes.