Year 8 Astronomy LabLive Astrophysics Engine

Understand how gravity & energy build the universe.

Step into STELLAR X: COSMIC LAB to test stellar evolution, collapse massive stars into black holes, bend light paths with gravity, and model planetary orbits through real-time interactive physics.

Simulation
Supernovae
Optics
Grav-Lensing
Mechanics
Black Holes
Telemetry Node // S-08
READY
M_CORE: 1.989 × 10³⁰ kg
RA 17h 45m 40s
LENSING: ACTIVE
G_μνMass CurvatureRELATIVISTIC WARP
8.42 × 10³⁰ kgSpacetime geometry actively deflected by simulated stellar core mass.
h_ijGravitational WavesSTRAIN DETECTED
142.6 HzBinary orbital decay producing detectable spacetime ripples.
4¹H → ⁴HeThermonuclear FusionHYDROSTATIC EQUILIBRIUM
1.57 × 10⁷ KCore radiation pressure balancing gravitational collapse.
Physics Parameters Loaded
Interactive Experiment Stations

Interactive Laboratory Modules

Hands-on astronomical simulation decks engineered for Year 8 science explorations. Adjust mass, inspect gravity wells, and observe real-time photon behavior.

Active Stations06 / 06 READY
Physics EngineHTML5 Canvas 60 FPS
Target CurriculumYear 8 & Summer Lab
Telemetry ClockRELATIVISTIC T=0
Thermonuclear Fusion
MOD 01
Stellar Evolution Workbench
Learning Objective
Model proto-star ignition, hydrostatic equilibrium, and core helium burning across mass tiers.
Interactive Controls3 ARRAYS
  • Mass Slider (0.1 – 60 M)
  • Hydrostatic Balance Gauge
  • Fusion Rate Telemetry
Equilibrium Ratio
Benchmark
1.000P_rad / P_grav
Singularity & Gravity
MOD 02
Black Hole & Event Horizon
Learning Objective
Investigate Schwarzschild radii, photon spheres, relativistic jets, and tidal force limits.
Interactive Controls3 ARRAYS
  • Singularity Mass Dial
  • Ergosphere Field Sensor
  • Hawking Flux Readout
Curvature Radius
Benchmark
2.95km / Solar Mass
Geodesic Optics
MOD 03
Gravitational Lensing Lab
Learning Objective
Observe deflection angles of distant photons passing massive galaxy clusters and dark matter haloes.
Interactive Controls3 ARRAYS
  • Lens Mass Adjuster
  • Geodesic Vector Overlay
  • Einstein Ring Synthesizer
Deflection Angle
Benchmark
1.75arcsec
Relativity Geometry
MOD 04
Space-Time Coordinate Grid
Learning Objective
Map Einsteinian 4D fabric warping caused by compact celestial bodies and moving masses.
Interactive Controls3 ARRAYS
  • Grid Mass Placement
  • Gravitational Potential Mesh
  • Proper Time Comparator
Metric Tension
Benchmark
8.32g_00 field
Orbital Mechanics
MOD 05
Planetary Orbits & Habitable Zones
Learning Objective
Construct multi-planet solar systems while computing resonance, Keplerian ellipses, and goldilocks radii.
Interactive Controls3 ARRAYS
  • Semi-Major Axis Tuner
  • Orbital Period Counter
  • Insolation Flux Analyzer
Stable Resonance
Benchmark
3:2Harmonic Lock
Extreme Astrophysics
MOD 06
Supernova Core Collapse Model
Learning Objective
Simulate Type Ia runaway deflagrations and Type II iron core collapses leading to neutron stars.
Interactive Controls3 ARRAYS
  • Core Mass Threshold
  • Neutrino Pressure Dial
  • Heavy Element Yield Bar
Blast Luminosity
Benchmark
10^44Joules / sec

Need guided curriculum tasks?

Follow step-by-step experiment worksheets created for Year 8 astronomy science groups.

View Project Dossier
Scientific Method Workbench

Scientific Discovery Process

Formulate a hypothesis, adjust cosmic variables, execute particle trajectories, and analyze real-time gravitational lensing readouts just like an astrophysicist.

Lab Mastery
33%
Experimental Variable Deck
Step 01 / Configure
Adjust the physical properties of the target star and approaching photon beam.
8.5 M
1.0 M (Solar)10.0 M (Heavy Star)20.0 M (Collapse Limit)
65% c
Sub-relativistic (20%)High Relativistic (100%)
42 k-km
Near Core (10k km)Distant Transit (90k km)
Calculated Hypothesis
Theoretical predictions generated from Einstein Field Equations.
Expected Light Deflection0.69° arc

Light traveling past a 8.5 M body at 42k-km will curve by approximately 0.69 degrees.

Estimated Energy Flux145.9 TeV

Photons will experience gravitational blueshift proportional to central stellar mass.

Year 8 Science Takeaway

Mass tells spacetime how to curve, and spacetime tells light how to move. You don't need mass yourself to feel gravity — even pure light bends!

Interactive Variables

Tune solar mass up to 20 M and manipulate relativistic beam speeds with live parameter updates.

Procedural Canvas Physics

60fps HTML5 simulation modeling spacetime curvature distortion and light ray geodesic paths.

Year 8 Aligned Telemetry

Clear empirical graph readouts and structured conclusions built for school science curricula.

LABORATORY TELEMETRY

Quantified Scientific Discovery

Real-time operational benchmarks from STELLAR X: COSMIC LAB. Tracking how Year 8 students experiment with gravity, mass, and energy to unlock deep space mechanics.

SIMULATION ENGINE
12,480+
Active Simulation Passes
Real-time gravity and orbital computations run by students.
Telemetry Live#NODE-01
ASTROPHYSICS DB
850+
Celestial Bodies Modeled
Main sequence stars, neutron cores, singularities, and planets.
Telemetry Live#NODE-02
THEORETICAL CORE
24
Visualized Formulas
Kepler orbits, gravitational lensing, and fusion equations.
Telemetry Live#NODE-03
LEARNING OUTCOME
99.4%
Student Concept Mastery
Comprehension rating recorded across Summer School cohorts.
Telemetry Live#NODE-04

Ready to execute your own cosmic variable test?

Enter the lab deck to adjust mass, light trajectories, and spacetime curvature.

Interactive Mission Deck

Ready to Launch the Cosmic Simulation Workbench?

Step into full-screen observatory mode for dynamic classroom projection or dive directly into individual physics experiments. Adjust mass, observe photon trajectories, and examine stellar collapse in real time.

Classroom Mode & Guide
Active Simulation Parameters
Solar Mass Matrix
0.1M – 120M
Gravitational Tensor
G = 6.674e-11
Engine Frame Rate
60 FPS Active
Observatory Sync
Classroom Live