Background of the Invention 1. Technical Field The invention relates to authorization and execution control in satellite and non-terrestrial communication systems, and more particularly to mechanisms for enforcing jurisdictional and regulatory constraints in environments characterized by continuous orbital motion, dynamic coverage, and autonomous operation. 2. Present-Day Jurisdiction Enforcement in Satellite Systems Existing satellite systems typically enforce jurisdictional constraints using static or administratively defined constructs, such as: predefined geographic regions, country or regulatory codes, static coverage maps, ground-side policy configurations. These constructs are generally defined at mission planning time or during payload configuration and are assumed to remain valid during execution. However, satellite systems are inherently dynamic. Orbital motion continuously changes the satellite’s physical relationship to Earth, its coverage footprint, and its operational context. As a result, jurisdictional relevance is not static but evolves over time according to orbital physics. 3. Unsolved Problems in Existing Approaches 3.1 Static Jurisdiction Models in a Dynamic Physical System Conventional jurisdiction enforcement assumes that execution context can be determined using static mappings between location and authority. In satellite systems, such mappings become outdated as soon as the satellite moves. Unsolved problem:Static jurisdiction configurations cannot reliably track changing orbital position or coverage footprint. 3.2 Stale and Misconfigured Enforcement Jurisdictional constraints are often configured manually or administratively. Errors in configuration, delayed updates, or mismatches between planned and actual orbital behavior can result in: unauthorized execution in restricted regions, over-blocking of permitted execution, reliance on post-hoc correction. Unsolved problem:There is no automatic mechanism to invalidate authority when physical context changes. 3.3 Dependence on Non-Physical Proxies Some systems attempt to infer jurisdiction using: IP geolocation, ground gateway location, static region identifiers. These proxies are indirect and can be inaccurate or misleading in satellite environments. Unsolved problem:Jurisdiction enforcement is decoupled from the actual physical location and coverage of the satellite. 3.4 Autonomous Satellite Operation Modern satellites increasingly operate with: onboard scheduling, autonomous payload decisions, reduced real-time ground supervision. In such systems, manual re-authorization or human-driven jurisdiction updates are infeasible. Unsolved problem:Jurisdiction enforcement must adapt autonomously to orbital motion without continuous human input. 3.5 Execution Without Context Revalidation Even when jurisdiction is evaluated at planning or command time, execution may occur later, after the satellite has moved into a different physical context. Unsolved problem:Authority is not revalidated against live orbital state at execution time. 4. Limitations of Existing Solutions Geofencing relies on static boundaries and cannot reflect continuous orbital movement. Country or region codes are administrative abstractions, not physical realities. Ground-side policy enforcement does not account for delayed execution. Monitoring and audits detect violations after execution has already occurred. None of these approaches provide deterministic, execution-time guarantees tied to physical orbital conditions. 5. Need for Orbit-Bound Authority Enforcement There exists a need for an authorization mechanism that: binds authority to orbital state and mission context, evaluates validity at execution time or continuously, automatically adapts to satellite motion, invalidates authority when physical context no longer matches permitted conditions, operates autonomously onboard without reliance on static geography or human intervention. Summary of the Invention (Problem–Solution Framing) The present invention addresses these unmet needs by introducing orbit-bound jurisdiction authority tokens whose validity is conditioned on live orbital and operational parameters rather than on static geographic assumptions. Authority artifacts encode acceptable execution contexts in terms of orbital physics and mission state. These artifacts are evaluated against real-time ephemeris, coverage footprint, and mission phase data at execution time or continuously. When the physical context changes such that constraints are no longer satisfied, authority is automatically invalidated, and execution is prevented. Technical Effects The invention produces the following verifiable technical effects: Context-Aware Execution GatingExecution is permitted only when authority matches live orbital and operational context. Elimination of Stale Jurisdiction EnforcementAuthority automatically expires upon context mismatch, preventing misconfigured execution. Autonomous Adaptation to Orbital MotionEnforcement evolves continuously with satellite movement, without human intervention. Physics-Bound AuthorizationJurisdiction is enforced based on physical orbital reality rather than administrative proxies. Prevention of Invalid Execution StatesExecution is blocked when authority no longer corresponds to the satellite’s actual physical context. Core Technical Insight In satellite systems, jurisdiction that is not validated against live orbital physics at execution time is not enforceable jurisdiction. This invention transforms jurisdiction enforcement from a static configuration problem into a runtime physics-validated execution control mechanism. NTN / 6G Regulatory Enforcement Gaps → Mapping to Orbit-Bound Authority Tokens 1) Moving-beam / moving-cell jurisdiction gap (LEO reality) What’s unsolved today In NTN, “cells” (spot beams) and coverage footprints move continuously. Static geofences or country lists go stale, and planned coverage ≠ actual coverage during execution. 3GPP itself highlights that NTN networks connected to cores in multiple countries must meet regulatory requirements from those countries (e.g., lawful interception). Why existing mechanisms fail “Jurisdiction = configuration” is brittle when the satellite footprint shifts minute-by-minute. IP geolocation is not a reliable proxy for satellite footprint. What Invention 3 adds Authority validity is bound to live ephemeris / footprint / mission phase, not a static region list. Execution is permitted only when current orbital/coverage parameters satisfy constraints. Result: jurisdiction enforcement follows physics, not admin configuration. 2) Multi-country core connectivity gap (roaming + multi-core NTN) What’s unsolved today NTN access can be connected to 5G core networks in multiple countries, requiring compliance with each country’s rules (lawful interception, emergency services, retention, etc.). But the satellite footprint is not aligned with a single national boundary at execution time. Why existing mechanisms fail Compliance is often enforced where the core is located or where the gateway is, which may not match where coverage is actually being provided. The “where is the service being delivered?” question is dynamic. What Invention 3 adds Tokens encode which regulatory context applies for the current footprint / orbital state. Authority invalidates automatically when the footprint shifts into a different regulatory regime. This becomes a runtime compliance switch for multi-core NTN. 3) EU-level satellite authorization meets moving coverage (DNA / “single passport” reality) What’s unsolved today The EU is moving toward an EU-level satellite spectrum authorization and a “single passport” to enable pan-EU operations. Even with an EU-level framework, obligations can still vary by: Member State implementation details, specific licensing conditions, interference coordination constraints. Why existing mechanisms fail Operators rely on procedures + static configs, which do not guarantee that execution respects current coverage context. What Invention 3 adds “EU authorization” becomes enforceable as orbit/footprint-conditioned authority rather than a static license object. The token can encode permitted operational windows/contexts and invalidate outside them. 4) Position-related regulatory obligations vs unreliable positioning (NTN positioning gap) What’s unsolved today NTN positioning is explicitly called out as a requirement area; 3GPP notes mechanisms to determine UE position-related data when outside terrestrial positioning coverage. But UE positioning may be imperfect; and jurisdiction based on UE location is not always sufficient for regulatory routing. Why existing mechanisms fail If the system depends on UE-provided or inferred location, adversarial or inaccurate location can cause enforcement errors. What Invention 3 adds Jurisdiction binding can be based on satellite orbital state + beam footprint (provider-controlled, physics-based), not only UE geolocation. This reduces reliance on “soft” location signals and makes enforcement deterministic. 5) Interference / coordination obligations are procedural today (execution-time gap) What’s unsolved today ITU emphasizes national licensing under Radio Regulations and cross-border coordination between administrations. In practice, many controls are “paper compliance”: planned coordination + monitoring, not runtime hard enforcement. Why existing mechanisms fail Procedural compliance can’t prevent an out-of-window transmission if onboard scheduling drifts or state is stale. What Invention 3 adds Tokens can encode operational windows consistent with coordination outcomes (time/beam/frequency context). If orbital/mission context deviates, authority invalidates and execution is blocked (especially when combined with Invention 2’s emission-time gate). 6) Autonomy + delayed ground control (6G trend gap) What’s unsolved today NTN/6G roadmaps anticipate more autonomy (adaptive scheduling, AI-assisted resource mgmt). Regulatory enforcement cannot assume continuous ground connectivity or real-time operator intervention. Why existing mechanisms fail “Human-in-the-loop” compliance does not scale to autonomous NTN operations. What Invention 3 adds Tokens provide self-contained, runtime-verifiable authority tied to physics. Enforcement is automatic when mission phase/footprint changes—no operator action required. How Invention 3 fits with Invention 2 Invention 3 answers: “Which jurisdictional authority is valid right now, given orbital reality?” Invention 2 answers: “Even if commanded, can RF emission occur without valid authority at emission time?” Together they close a key NTN/6G enforcement gap: dynamic jurisdiction + irreversible transmission finality. One-line “regulatory gap → technical solution” summary NTN/6G makes coverage mobile and multi-jurisdictional, while existing enforcement remains static and procedural; orbit-bound authority tokens convert jurisdiction into a runtime physics-validated execution predicate consistent with multi-country regulatory obligations. One-Line Explanation for Examiners Execution is permitted only when a cryptographically bound authority token matches the live orbital and non-terrestrial network execution context at execution time; otherwise, execution is deterministically blocked. Patent Status Disclosure Certain concepts, systems, and methods described in this publication are the subject of patent applications that have already been filed and are currently pending in one or more national and/or international patent offices. This disclosure is provided for defensive publication, academic reference, and transparency purposes only.Nothing herein shall be construed as a waiver of patent rights, a dedication to the public domain, or a license to practice any claimed or claimable invention. All patent rights remain expressly reserved. About the Author (Transparency Disclosure Only) This section is provided solely in the interest of transparency and contextual clarity. It does not request or imply adoption, endorsement, funding, procurement, standard-setting, or regulatory action, nor is it intended to influence policy outcomes. The author is an independent technologist and inventor based in Balasore, India, holding a Bachelor of Engineering in Electronics and Telecommunications. The author’s work focuses on protocol-level privacy, security, and compliance-enforcement architectures designed to make existing legal and regulatory obligations technically enforceable at execution time in automated and AI-driven digital systems. The technical framework and related inventions referenced in this submission have been filed internationally through the World Intellectual Property Organization (WIPO) and through multiple national patent applications in India, comprising more than 2,550 coordinated claims. These filings address execution-time privacy enforcement, jurisdictional control, and automation-safe compliance architectures across terrestrial, satellite, and distributed execution environments. All patent applications were conceived, prepared, and filed independently, without institutional affiliation, external funding, or corporate sponsorship.

Abstract Disclosed is an execution-time authorization framework for satellite and 6G non-terrestrial network (NTN) systems in which jurisdictional authority is bound to dynamic orbital and operational context, rather than to static geographic identifiers, fixed region lists, or network-layer location proxies. In emerging 6G architectures, where terrestrial and non-terrestrial components are integrated and coverage cells, beams, and execution contexts are inherently mobile, conventional jurisdiction enforcement mechanisms based on country codes, static geofencing, or IP-based inference are insufficient. The disclosed system evaluates authority validity based on real-time orbital physics and mission state, integrating live orbital state data—including ephemeris information, coverage footprint, and mission phase—with cryptographically bound authority artifacts encoding permitted execution contexts. Authority validity is evaluated continuously or at execution time through comparison of current orbital and operational parameters against encoded constraints. Authority is automatically invalidated when orbital position changes, coverage footprint shifts, mission phase transitions occur, or non-terrestrial network execution contexts no longer conform to the permitted jurisdictional conditions. By tying execution authority directly to physical orbital reality and NTN execution context, the invention prevents stale, misconfigured, or administratively incorrect jurisdiction enforcement across satellite-terrestrial integrated networks. The approach enables autonomous adaptation to satellite motion and dynamic 6G NTN operation without human intervention and ensures that execution effects—such as communication routing, service delivery, or transmission enablement—occur only when authority remains consistent with the actual physical and network context. The invention introduces a new class of physics-bound and context-bound authorization, transforming jurisdiction enforcement in satellite and 6G systems from static configuration into deterministic runtime validation aligned with orbital dynamics and non-terrestrial network behavior.