Astrophyzix Digital Observatory
Asteroid News, Research & Analysis

Astrophyzix.com is the publication of the Astrophyzix Digital Observatory, offering unpaywalled, evidence‑driven analysis and real‑time monitoring of PHAs and NEOs. Our tracking consoles and reporting systems use and provide access to official NASA CNEOS Scout, JPL CAD, NeoWs, JPL SBDB, Horizons and NOAA observational datasets, peer‑reviewed sources, and high‑precision numerical methods (IEEE‑754 Float64, RKN4). Designed for students, educators, researchers, and the public, every console is uniquely designed and engineered by the Astrophyzix Digital Observatory. Our research notes and papers can be found at Astrophyzix.Academia.Edu

Thursday, 11 June 2026

NEO PHA Asteroid Close Approach Report for 11 June 2026 NASA NeoWs Data Analysis by Astrophyzix Digital Observatory

 ASTROPHYZIX // PLANETARY DEFENSE DESK

Image description
CLOSE APPROACH Bulletin · NASA NeoWs API

Daily Near-Earth Object Close-Approach Report: June 11, 2026

Near-Earth object encounters catalogued across a 7-day window, reported on the UTC civil time scale.

On June 11, 2026 (UTC), daily screening of the NASA NeoWs catalogue resolves 39 near-Earth object close approaches across the report window. The single closest encounter is 2003 LN6, passing at approximately 3.68 lunar distances (1,417,040 km) with a relative velocity near 3.9 km/s. Its order-of-magnitude kinetic energy, for scale only, is near 0 Mt TNT equivalent; Astrophyzix can confirm that no listed object is on an impacting trajectory. There is currently no known impact threat reported. 

To view the very latest, most comprehensive JPL CAD and CNEOS Scout Data in real time please use the Astrophyzix Dual-watch Asteroid Monitoring system

CLOSEST APPROACH IN Window (TRACK LIVE
2003 LN6
3.68 LD
1,417,040 km · 0.009472 au · v_rel 3.92 km/s
EARTH SURFACE19.5 LD (FILTER EDGE)
Encounter (UTC)
2026-Jun-18 20:54
Est. diameter
0.045 km (NeoWs)
Diameter range
0.030 - 0.068 km
Earth radii
222 R(E)

Tuesday, 2 June 2026

How Astrophyzix Digital Observatory Maintains Professional Standards in NEO and PHA Monitoring and How Orbital Refinement Calculations are Performed.

Astrophyzix Technical Transparency Report · Computational Methods & NASA Integration



Image description Float64 · IEEE‑754 · Yoshida‑4 · Runge–Kutta · Dormand–Prince · N‑Body · WebGPU · VSOP87 · NASA APIs
✨ A detailed public outreach explainer in response to user questions about how Astrophyzix computes, refines, and visualises orbits of planets, potentially hazardous asteroids (PHA'S), comets and Near-Earth Objects (NEO's) 

Float64 Precision IEEE‑754 Standard N‑Body Physics WebGPU Compute

High‑Order Integrators NASA API Integration

Introduction

This article is written in response to recent questions from Astrophyzix users asking how our orbital‑refinement system works, what computational methods we use, and how our visualisations achieve the same scientific fidelity seen in NASA’s SBDB Orbital Viewer. Astrophyzix does not copy and paste data or information. We use live, raw data provided by NASA and it is processed through our own systems to provide the public with an easy to understand platform without compromising the raw data. Here's how we do it. 

Astrophyzix is committed to transparent science communication. This report explains — in clear, technical detail — the numerical standards, integrators, GPU compute systems, and NASA data pipelines that power the Astrophyzix Digital Observatory.

Numerical Foundations — Float64 & IEEE‑754

Astrophyzix performs all orbital calculations using Float64, the 64‑bit floating‑point format defined by the IEEE‑754 standard. This provides:

  • ~15–17 digits of precision
  • stable rounding behaviour
  • predictable error propagation
  • compatibility with NASA Horizons and JPL SBDB data

Lower‑precision formats (Float32) introduce rounding errors that accumulate into kilometre‑scale deviations over long integrations. Float64 ensures:

  • accurate MOID calculations
  • stable long‑term orbit propagation
  • precise close‑approach modelling
  • correct gravitational‑keyhole geometry
Float64 is the same precision used by NASA, ESA, and academic orbital‑mechanics software — Astrophyzix uses it for every physics engine.


Independent Direct Source Verification
Uncompromised Crossref DOI Resolver · Live and direct meta data fetch
Awaiting DOI input