/* OpenHero source by Cristian Olivera Chávez. MIT License Copyright (c) 2026 Cristian Olivera Chávez Permission is hereby granted, free of charge, to any person obtaining a copy of this software and associated documentation files (the "Software"), to deal in the Software without restriction, including without limitation the rights to use, copy, modify, merge, publish, distribute, sublicense, and/or sell copies of the Software, and to permit persons to whom the Software is furnished to do so, subject to the following conditions: The above copyright notice and this permission notice shall be included in all copies or substantial portions of the Software. THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE. */ "use client"; import { useEffect, useRef } from "react"; import { Icon } from "@iconify/react"; const contemplationItems = [ { icon: "lucide:eye", title: "Unobstructed Sightlines", text: "Observe without the scattering effects of the dense lower atmosphere. Pristine visual telemetry extending across terminal vectors.", border: "border-[#06b6d4]/20", iconBg: "bg-[#06b6d4]/10", iconColor: "text-[#06b6d4]", }, { icon: "lucide:wind", title: "Atmospheric Envelope", text: "Trace the fragile blue boundaries shielding planetary complexity from deep void environments. A dynamic barrier in permanent evolution.", border: "border-[#10b981]/20", iconBg: "bg-[#10b981]/10", iconColor: "text-[#10b981]", }, { icon: "lucide:activity", title: "Chronostasis Phase", text: "Experience a non-linear flow of time. Orbital velocities decouple your perception from typical day-to-night transitions.", border: "border-[#818cf8]/20", iconBg: "bg-[#818cf8]/10", iconColor: "text-[#818cf8]", }, { icon: "lucide:mountain", title: "The Terrestrial Core", text: "Connect conceptually with solid landmasses, lithospheric plates, and profound ocean basins breathing synchronously beneath the cloud layers.", border: "border-[#a855f7]/20", iconBg: "bg-[#a855f7]/10", iconColor: "text-[#a855f7]", }, ]; const dimensions = [ { value: "6,371", suffix: "km", title: "Mean Planetary Radius", text: "The foundational dimensional constant defining structural gravitational bounds and orbital baseline geometry.", dot: "bg-[#06b6d4]", glow: "shadow-[0_0_10px_#06b6d4]", }, { value: "7.29", suffix: "e-5", title: "Angular Angular Velocity", text: "Radians per second driving atmospheric Coriolis currents, global weather bands, and structural field dynamics.", dot: "bg-slate-700", hoverDot: "group-hover:bg-[#06b6d4]", }, { value: "510.1", suffix: "M²", title: "Surface Area Horizon", text: "Total square kilometers of continuous biological and topographical processes visible from outer perimeter outposts.", dot: "bg-slate-700", hoverDot: "group-hover:bg-[#06b6d4]", }, ]; const ecosystemLinks = [ ["lucide:layers", "Tropospheric Boundary Analytics", "text-[#06b6d4]"], ["lucide:globe", "Continental Carbon Sink Tracking", "text-[#10b981]"], ["lucide:radio", "Electromagnetic Ionosphere Auditing", "text-[#a855f7]"], ] as const; const stats = [ ["LON:", "72.5412° W"], ["LAT:", "13.6339° S"], ["PRES:", "0.004 PA"], ] as const; export default function Page() { const navRef = useRef(null); useEffect(() => { const handleScroll = () => { const nav = navRef.current; if (!nav) return; if (window.scrollY > 50) { nav.classList.add("nav-scrolled", "py-3"); nav.classList.remove("py-4"); } else { nav.classList.remove("nav-scrolled", "py-3"); nav.classList.add("py-4"); } }; handleScroll(); window.addEventListener("scroll", handleScroll, { passive: true }); return () => window.removeEventListener("scroll", handleScroll); }, []); return (

Expand
The Horizon

Observe the planetary ecosystem from a perspective previously reserved for the stars. Monitor, analyze, and preserve terrestrial biomes in real-time.

Scroll to descend

Phase 01 / Overview

The Macro
Perspective.

To understand the delicate balance of our world, we must step back. Celestia provides continuous, high-fidelity topographical and atmospheric data, merging orbital imaging with ground-level sensors to create a living digital twin of the Earth.

  • Sub-meter resolution imaging across all biomes.
  • Atmospheric and oceanic current mapping in real-time.
  • Quantum-processed predictive ecological modeling.
Earth from space
Live Feed :: Sector 7G

Systems Architecture

Engineered for the absolute unknown.

View Technical Specs

Lidar Penetration

Map sub-canopy topography and subterranean structures with deep-penetrating orbital lidar sweeps, ignoring cloud cover and foliage.

Geospatial Mapping

Construct hyper-accurate 3D models of shifting biomes, rendering tectonic movements and glacial recessions in real-time.

Energy Signature Analysis

Detect minute thermal and electromagnetic anomalies across the surface, identifying ecological stressors before they become visible.

Active Satellites

1,402

Data Processed

84PB/s

Surface Mapped

99.8%

Uptime Core

100%

Deep Space Background

Access The Archive

Join the coalition of researchers, engineers, and visionaries mapping the future of our pale blue dot.

Level 4 Clearance Required. Encryption standard AES-256 active.

); }