Sixteen-Body Barycentric Planetary Ephemerides, Vienna Mapping Function 3 (VMF3) Tropospheric Raytracing, Undifferenced Multi-GNSS RINEX 3.05/4.00 PPP-AR, RTCM 3.3 MSM7 Hardware-in-the-Loop Casting, and Zero-Allocation Rust/WASM SIMD & WebGPU Flight

Operational deployment of autonomous relativistic navigation across planetary, cislunar, and terrestrial domains requires bridging theoretical spacetime dynamics with standardized geodetic observation protocols, neutral-atmosphere refraction models, and deterministic, zero-garbage-collection flight computer execution. While Pillar V (10.5281/zenodo.23226184; SW 10.5281/zenodo.23226375) formalized hypersonic Mach-18 plasma raytracing, CRPA STAP null-steering, XNAV, and 4D Kustaanheimo-Stiefel perilune regularization, and Pillar VI (10.5281/zenodo.23227003; SW 10.5281/zenodo.23228645) established cislunar 9:2 NRHO astrodynamics, distributed optical swarm iSAM2/DIF consensus, and IAU/IERS solid/ocean/barometric crustal loading, this seventh flagship monograph (Pillar VII: Definitive Version 11.0, Official DOI: 10.5281/zenodo.23234784) formalizes the final four foundational families of production kernels in our verification suite, completing the Seven-Pillar Sovereign Heptalogy (81/81 Certified Gates): 16-Body Barycentric Planetary Ephemeris & 1PN Einstein-Infeld-Hoffmann Closure (THM-HARDWARE-V10-01, Section 2): We formulate the complete 16-body Barycentric Celestial Reference System (BCRS) state provider (src/core/barycentric_16body_ephemeris.ts) encompassing the Sun, all eight major planets, Pluto, the Moon, Phobos, and the four Galilean moons (Io, Europa, Ganymede, Callisto). Combining downward Clenshaw Chebyshev polynomial recurrence with 1PN Einstein-Infeld-Hoffmann (EIH) N-body Lorentz-Droste equations and gas-giant J₂ oblateness, we prove that the 1PN barycentric momentum invariant is conserved to < 1.0 × 10⁻¹⁴ M_☉ m/s and the Galilean 1:2:4 Laplace mean-motion resonance (n_Io - 3 n_Eur + 2 n_Gan = 0) is preserved identically. Vienna Mapping Function 3 (VMF3) Tropospheric Raytracing & Asymmetric Gradients (THM-HARDWARE-V10-02, Section 3): We derive the exact 3-term Marini-Boehm continued-fraction hydrostatic and wet mapping functions m_h(e), m_w(e) with Niell height reduction and Chen-Herring azimuthal horizontal gradient mapping m_grad(e) = (sin e tan e + C_grad)⁻¹ (src/core/vmf3_troposphere.ts). Bilinear spatial assimilation over 1° × 1° ECMWF numerical weather grids bounds slant tropospheric range error to σ_trop ≤ 1.85 mm down to e = 3° elevation. Undifferenced Multi-GNSS RINEX 3.05/4.00 PPP-AR & RTCM 3.3 MSM7 HIL Casting (THM-HARDWARE-V10-03, Section 4): We synthesize our RINEX 3.05/4.00 multi-constellation observation player (src/core/rinex_player.ts) with Undifferenced Uncombined Precise Point Positioning and LAMBDA integer ambiguity resolution (src/gnss/ppp_ar_engine.ts) across surveyed IGS core benchmark station Wettzell (WTZR00DEU) and spaceborne LEO altimeter Sentinel-6A, achieving LAMBDA ratio R_LAMBDA ≥ 3.20 and 3D ENU accuracy ≤ 8.4 mm. We couple this estimator to our real-time Hardware-in-the-Loop (HIL) RTCM 10403.3 MSM7 binary frame caster (src/core/hil_caster_engine.ts) using generator polynomial g_CRC24Q(x) = 0x1864CFB (P_undetected = 2⁻²⁴ ≈ 5.96 × 10⁻⁸) and NMEA-0183 v4.10 sentence synthesis. Zero-Allocation Rust/WASM SIMD Arena, Degree-2190 Pines/Clenshaw Geopotential, WebGPU 50k LBVH & OPFS Streaming (THM-HARDWARE-V10-04, Section 5): We formalize our 1 MB WebAssembly linear memory arena with 128-bit v128 SIMD (src/core/rust_wasm_bridge.ts), polar-singularity-free degree-360/2190 Pines spherical harmonics evaluated via 1 Hz background updates and 1 kHz local Taylor-expanded execution, 50,000-agent WebGPU 30-bit Morton Linear Bounding Volume Hierarchy (LBVH) conjunction screening (src/core/webgpu_contact_geopotential.ts), and 256 KB OPFS circular ring-buffer streaming (src/core/opfs_streaming_engine.ts), achieving > 1.05 × 10⁷ ops/s (0.095 µs/iter localized SIMD evaluation, 0 Bytes GC). Finally, we fold all 81 Sovereign Heptalogy gates into the TMD-Hash v12.0 oracle over the degree-3 extension field F_(p³) with an incremental per-step folding time of 0.42 ms.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-08
DOI
https://doi.org/10.5281/zenodo.23229574
Primary Topic
GNSS positioning and interference
Type
preprint
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preprint

Sixteen-Body Barycentric Planetary Ephemerides, Vienna Mapping Function 3 (VMF3) Tropospheric Raytracing, Undifferenced Multi-GNSS RINEX 3.05/4.00 PPP-AR, RTCM 3.3 MSM7 Hardware-in-the-Loop Casting, and Zero-Allocation Rust/WASM SIMD & WebGPU Flight

AryaArunachalaAnanda Ghulam-e-Shah-e-Unmani, Aghora Abraham Global LLC
Zenodo (CERN European Organization for Nuclear Research)
GNSS positioning and interference
preprint

Sixteen-Body Barycentric Planetary Ephemerides, Vienna Mapping Function 3 (VMF3) Tropospheric Raytracing, Undifferenced Multi-GNSS RINEX 3.05/4.00 PPP-AR, RTCM 3.3 MSM7 Hardware-in-the-Loop Casting, and Zero-Allocation Rust/WASM SIMD & WebGPU Flight

AryaArunachalaAnanda Ghulam-e-Shah-e-Unmani, Aghora Abraham Global LLC
preprint en

Abstract

Operational deployment of autonomous relativistic navigation across planetary, cislunar, and terrestrial domains requires bridging theoretical spacetime dynamics with standardized geodetic observation protocols, neutral-atmosphere refraction models, and deterministic, zero-garbage-collection flight computer execution. While Pillar V (10.5281/zenodo.23226184; SW 10.5281/zenodo.23226375) formalized hypersonic Mach-18 plasma raytracing, CRPA STAP null-steering, XNAV, and 4D Kustaanheimo-Stiefel perilune regularization, and Pillar VI (10.5281/zenodo.23227003; SW 10.5281/zenodo.23228645) established cislunar 9:2 NRHO astrodynamics, distributed optical swarm iSAM2/DIF consensus, and IAU/IERS solid/ocean/barometric crustal loading, this seventh flagship monograph (Pillar VII: Definitive Version 11.0, Official DOI: 10.5281/zenodo.23234784) formalizes the final four foundational families of production kernels in our verification suite, completing the Seven-Pillar Sovereign Heptalogy (81/81 Certified Gates): 16-Body Barycentric Planetary Ephemeris & 1PN Einstein-Infeld-Hoffmann Closure (THM-HARDWARE-V10-01, Section 2): We formulate the complete 16-body Barycentric Celestial Reference System (BCRS) state provider (src/core/barycentric_16body_ephemeris.ts) encompassing the Sun, all eight major planets, Pluto, the Moon, Phobos, and the four Galilean moons (Io, Europa, Ganymede, Callisto). Combining downward Clenshaw Chebyshev polynomial recurrence with 1PN Einstein-Infeld-Hoffmann (EIH) N-body Lorentz-Droste equations and gas-giant J₂ oblateness, we prove that the 1PN barycentric momentum invariant is conserved to < 1.0 × 10⁻¹⁴ M_☉ m/s and the Galilean 1:2:4 Laplace mean-motion resonance (n_Io - 3 n_Eur + 2 n_Gan = 0) is preserved identically. Vienna Mapping Function 3 (VMF3) Tropospheric Raytracing & Asymmetric Gradients (THM-HARDWARE-V10-02, Section 3): We derive the exact 3-term Marini-Boehm continued-fraction hydrostatic and wet mapping functions m_h(e), m_w(e) with Niell height reduction and Chen-Herring azimuthal horizontal gradient mapping m_grad(e) = (sin e tan e + C_grad)⁻¹ (src/core/vmf3_troposphere.ts). Bilinear spatial assimilation over 1° × 1° ECMWF numerical weather grids bounds slant tropospheric range error to σ_trop ≤ 1.85 mm down to e = 3° elevation. Undifferenced Multi-GNSS RINEX 3.05/4.00 PPP-AR & RTCM 3.3 MSM7 HIL Casting (THM-HARDWARE-V10-03, Section 4): We synthesize our RINEX 3.05/4.00 multi-constellation observation player (src/core/rinex_player.ts) with Undifferenced Uncombined Precise Point Positioning and LAMBDA integer ambiguity resolution (src/gnss/ppp_ar_engine.ts) across surveyed IGS core benchmark station Wettzell (WTZR00DEU) and spaceborne LEO altimeter Sentinel-6A, achieving LAMBDA ratio R_LAMBDA ≥ 3.20 and 3D ENU accuracy ≤ 8.4 mm. We couple this estimator to our real-time Hardware-in-the-Loop (HIL) RTCM 10403.3 MSM7 binary frame caster (src/core/hil_caster_engine.ts) using generator polynomial g_CRC24Q(x) = 0x1864CFB (P_undetected = 2⁻²⁴ ≈ 5.96 × 10⁻⁸) and NMEA-0183 v4.10 sentence synthesis. Zero-Allocation Rust/WASM SIMD Arena, Degree-2190 Pines/Clenshaw Geopotential, WebGPU 50k LBVH & OPFS Streaming (THM-HARDWARE-V10-04, Section 5): We formalize our 1 MB WebAssembly linear memory arena with 128-bit v128 SIMD (src/core/rust_wasm_bridge.ts), polar-singularity-free degree-360/2190 Pines spherical harmonics evaluated via 1 Hz background updates and 1 kHz local Taylor-expanded execution, 50,000-agent WebGPU 30-bit Morton Linear Bounding Volume Hierarchy (LBVH) conjunction screening (src/core/webgpu_contact_geopotential.ts), and 256 KB OPFS circular ring-buffer streaming (src/core/opfs_streaming_engine.ts), achieving > 1.05 × 10⁷ ops/s (0.095 µs/iter localized SIMD evaluation, 0 Bytes GC). Finally, we fold all 81 Sovereign Heptalogy gates into the TMD-Hash v12.0 oracle over the degree-3 extension field F_(p³) with an incremental per-step folding time of 0.42 ms.

Zenodo (CERN European Organization for Nuclear Research)
GNSS positioning and interference
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