Measurements
Gravity science, magnetometry, microwave radiometry, plasma, energetic particles, ultraviolet/infrared aurora, and public imaging.
Jupiter
Juno expedition profile.
Juno uses a highly elliptical polar orbit to study Jupiter's interior, magnetic field, gravity, atmosphere, and auroras while limiting radiation exposure.
Loading mission geometry...
Mission facts
Launch, target, and status
Expedition path
How the spacecraft travelled
Earth gravity assist and Jupiter polar orbit insertion.
Refined Jupiter interior models, water-ammonia atmosphere structure, polar cyclones, and magnetic-field complexity.
Science Payload
What this mission measured
Target environment
The target reference is 5.203 AU in the compact simulator; solar-probe entries use close-solar perihelion distance while planet entries use the target world's solar orbit.
Review note
The canvas shows a clean teaching transfer and mission class. Exact flight dynamics require full ephemerides, maneuvers, launch energy, spacecraft mass properties, and operations timelines.
Expedition review
Why Juno matters
Refined Jupiter interior models, water-ammonia atmosphere structure, polar cyclones, and magnetic-field complexity.
Mathematical model
Mission trajectory and spacecraft model
Mission visuals combine catalog dates, distance vectors, speed estimates, and schematic spacecraft geometry. They are not CAD-certified vehicle meshes unless a source model is explicitly loaded.
Vector propagation
\[\mathbf{r}(t)=\mathbf{r}_0+\mathbf{v}(t-t_0)\]
For live-distance spacecraft pages, current position is propagated from epoch vector and velocity when high-precision ephemerides are not bundled.
Transfer curve
\[\mathbf{r}_{\mathrm{curve}}(u)=\operatorname{Bezier}\!\left(\mathbf{r}_{\mathrm{launch}},\mathbf{r}_{\mathrm{mid}},\mathbf{r}_{\mathrm{target}}\right)\]
Mission path arcs are schematic transfer curves anchored at meaningful endpoints, not claims of exact reconstructed trajectories.
Dimensional hierarchy
\[T_{\mathrm{world}}=T_{\mathrm{parent}}RS\]
Spacecraft parts are placed with transformation matrices. This proves the generated geometry is internally consistent even when simplified.
Verification standard: the rendered object must be reproducible from stated equations, catalog parameters, or explicit geometric transforms. Visual reference images may inform presentation only; they are not the source of orbital positions, field vectors, accretion-disk gradients, timing, or engineering layout.
Limitations: browser scenes may use bounded scale, compressed distances, simplified two-body dynamics, schematic transfer curves, or educational approximations where full numerical ephemerides, CFD, finite-element models, or general-relativistic ray tracing are outside the page scope. Those simplifications are part of the model contract, not hidden image-based construction.