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MY SIMULATORENGINEERING EXPERIENCE / 893983
ASTRONOMICAL ENGINEERING LABORATORY

POLARIS—AX9 TELESCOPE

LIVE 3D
VIEWPORT 01 / REAL-TIME RENDER

ASSEM­BLED CONFIGURATION

WEBGL2 / PBR-- FPS
FIG. 01  /  POLARIS SERIES
ENGINEERED IN VIRTUAL SPACE
YXZ
LEFT-DRAG ORBIT · SCROLL ZOOM · SHIFT-DRAG PANMODEL / 893983
CAMERA PRESETS
ANIMATION SEQUENCEEXPLODED ASSEMBLY CONTROL
EXPLODED VIEW0%
ASSEMBLED / 00DISASSEMBLED / 100
EXPLORE READYSelect components to inspect, or use Explode to reveal the assembly.123 COMPONENTS · 05 SUBSYSTEMS · 893983 SEED

POLARIS-AX9 / Operator's Guide

This is an interactive educational assembly with true per-component transforms and dependency checks. Specifications are illustrative rather than manufacturer-certified.

Camera & navigation

Drag orbit · Wheel / pinch zoom · Shift + drag pan · F focus selected · 1–6 change modes.

Manual assembly

Select a removable part, press Remove Part, drag towards its home anchor, and use Rotate −15° / +15° to correct its orientation. Releasing within 0.48 model units and close angular tolerance seats the component. Supporting parts must be installed first. Guided mode exposes the correct order; Challenge mode removes assistance.

Mechanism operation

The filter wheel has four indexed colour positions. Right ascension and declination move the optical payload, primary-mirror focus shifts the reflective cell, and the dew shield extends towards the front corrector.

Saving & access

Changes are autosaved locally. Use the top-right Save icon for immediate save, Reset to clear, or Replay for the animation. Works offline after static deployment, with automatic Canvas fallback when WebGL2 is unavailable.

The science

A telescope is more than a tube with a lens. It is a carefully supported optical train, a precision positioning machine and a collection of mechanical components that must preserve alignment even while the instrument turns through the sky. POLARIS-AX9 is an original interactive 3D learning model built to reveal those relationships. Instead of watching a pre-recorded animation, you can select individual parts, separate groups, inspect their roles, remove accessible components, and reinstall them according to assembly constraints.

The simulation contains 123 individually addressable 3D components divided into five practical subsystems: the tripod and base, the equatorial mounting system, the optical tube, the primary-mirror focusing hardware, and the filter and electronic control assembly. They include visible mechanical details such as shaft bearings, worm gears, clutch controls, retaining rings, screw-like fasteners, a corrector glass element, two mirrors, sliding guides, motors, filter holders and a camera sensor carrier. Each component is a genuine polygonal solid, not a flat illustration or a label floating over an empty background.

POLARIS-AX9 is fictional. The arrangement is inspired by well-established telescope principles, but the geometry, dimensions, mass figures and nominal performance values are illustrative, not fabrication specifications. The goal is to learn how an instrument can be put together and how its principal mechanisms are related.

This is an educational, illustrative model of a fictional product: part names, masses, materials and operating figures are simplified and are not a manufacturer's drawing, a design basis or a safety/acceptance document.

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