Category: Patents & Applications

Ideas, filings, and protected solutions

  • FrykenScope: A Topographic Line‑of‑Sight Engine for Sensor Relevance and Event Reconstruction

    By Roy Eriksson, Golden Mosquito LLC

    A photographer captures a scene of a person being restrained by another individual near a rocky area in a forest. Speech bubbles indicate camera icons, suggesting a focus on photography.

    Modern cities are saturated with sensors—fixed CCTV systems, vehicle‑mounted cameras, mobile phones, drones, and a growing ecosystem of environmental detectors. Yet investigations still rely on broad, unfocused data collection, often reviewing hours of irrelevant footage simply because it exists. FrykenScope proposes a different approach: a topographically constrained method for determining which sensors were physically capable of observing an event.

    Rather than expanding surveillance, the system narrows it.


    A system built around physical possibility, not data volume

    FrykenScope is a technical platform for event reconstruction that uses digital elevation models, terrain geometry, and building occlusion to determine which sensors had an unobstructed line of sight to a specific incident at a specific time.

    The core idea is simple:

    If a sensor could not have seen the event, its data is irrelevant — and should not be collected.

    This topographic filtering is performed automatically. When an operator enters coordinates and a time interval, FrykenScope evaluates all known sensors in the area and sorts them into two categories:

    • Relevant sensors — those with confirmed line of sight
    • Excluded sensors — those blocked by terrain, structures, or distance

    This creates a legally bounded, physically justified dataset before any analysis begins.


    How the system works

    1. Heterogeneous sensor integration

    FrykenScope can ingest data from:

    • fixed CCTV networks
    • vehicle‑mounted cameras
    • mobile phone cameras
    • drones and other mobile platforms
    • infrared and acoustic sensors
    • airborne particle detectors (e.g., gunpowder or narcotics signatures)

    Each sensor is georeferenced with coordinates and timestamps.

    2. Topographic validation

    Using elevation models and building geometry, the system computes:

    • line‑of‑sight vectors
    • occlusion zones
    • dynamic visibility cones
    • time‑dependent sensor relevance

    This ensures that only sensors with actual visual access are considered.

    3. Event reconstruction and movement analysis

    For moving objects, FrykenScope calculates:

    • escape routes
    • speed and direction
    • expanding search areas over time

    This allows investigators to reconstruct not only the event itself but also the lead‑up and aftermath.

    4. AI‑assisted identification

    Once relevant sensors are isolated, AI modules can perform:

    • license plate recognition
    • face/object identification
    • pattern matching across multiple sensor types

    Because the dataset is pre‑filtered, AI processing becomes faster and more accurate.


    Privacy by exclusion

    Unlike systems designed for continuous monitoring, FrykenScope is built around selective activation:

    • Only sensors whose owners have explicitly consented to positional use are included.
    • Only sensors with physical relevance are analyzed.
    • All other data is automatically excluded.

    This reduces unnecessary exposure of uninvolved individuals and creates a clear, auditable chain of evidence.


    Applications

    FrykenScope can support:

    • law enforcement investigations
    • national security analysis
    • forensic reconstruction
    • search‑and‑rescue operations
    • incident verification in contested environments

    Because it leverages sensors already present in the environment, it acts as a force multiplier rather than a mass‑surveillance tool.


    About the project

    FrykenScope is developed by Golden Mosquito LLC, based in Alaska, USA.
    Full technical documentation, including system diagrams (FIG. 1–8),

    External References

  • FrykenScope – Geospatial Line‑of‑Sight Validation for Event Reconstruction

    Subject: FrykenScope – Geospatial Line‑of‑Sight Validation for Event Reconstruction

    Diagram of the FrykenScope™ system showing fixed and mobile sensors, data flow arrows, a communications network, and a central control unit for line of sight validation.
    FrykenScope™ — a geospatial system that validates sensor line of sight and supports technical event reconstruction.

    A technical description of FrykenScope, a geospatially driven method for validating sensor relevance and reconstructing events using topographic precision. The system integrates heterogeneous sensors and applies strict line‑of‑sight logic.

    System Description: FrykenScope
    System and method for event identification and reconstruction through coordinated data analysis and topographic precision.


    1. Executive Summary

    FrykenScope is an advanced technical platform designed to transform how crimes and incidents are investigated and reconstructed. By integrating data from a network of heterogeneous sensors—both fixed and mobile—the system enables a holistic view of an event (see FIG. 1 for system architecture).
    The core of the system lies in its unique capability for topographic analysis, ensuring that only relevant and legally permissible data collection occurs based on physical line‑of‑sight and geographic relevance.


    2. Unique Core Technology: Topographic Analysis

    The most distinguishing feature of FrykenScope is the integration of digital topographic maps to validate the relevance of sensors.

    • Line‑of‑sight analysis:
      The system analyzes topographic data (buildings, terrain, elevation differences) to determine whether a specific sensor actually had visual access to the event location. This is illustrated in FIG. 7, where the system automatically sorts sensors based on their visual availability (“List of Sensors” vs. “Extended Area”).
    • Dynamic zone definition:
      Authorities can define specific geographic coordinates and activate or retrieve data only within those boundaries during selected time intervals.
    • Georeferencing:
      Each data point is precisely linked to coordinates and timestamps, creating a legally robust chain of evidence for reconstruction.

    3. System Components and Functions

    FrykenScope aggregates information from a wide range of sources (FIG. 1) to create a complete picture of an event:

    • Heterogeneous sensors:
      The system handles video, audio, infrared, and advanced airborne particle sensors (e.g., scent sensors for narcotics or gunpowder residue).
    • Real‑time tracking and escape‑route analysis:
      The system can calculate escape routes by analyzing speed, direction, and movement patterns (FIG. 6). As shown in FIG. 6, the search area expands dynamically as the object moves away from the incident.
    • AI‑assisted identification:
      Artificial intelligence is used to identify license plates, faces, or objects in complex environments.

    4. Societal Benefit and Privacy Protection

    FrykenScope prioritizes precision over mass surveillance.
    Instead of continuous monitoring, the system focuses on identifying—either retrospectively or in response to specific alerts—exactly which sensors were relevant to an incident.
    In the user interface (FIG. 7), the operator can quickly filter relevant data, minimizing unnecessary data exposure and protecting the privacy of individuals not involved in the event.


    FrykenScope functions as a force multiplier for both national security (for example, mapping IRGC‑related logistics) and law enforcement. By leveraging sensors already present in the environment, the system creates a clear analytical path from incident to origin. Golden Mosquito LLC is based in Alaska, USA. Full technical documentation, including system drawings (FIG. 1–8), is available on the website: Golden Mosquito LLC.

    External References

  • Smart Forest Automation: Maximizing Reforestation Yield

    A rear view of an advanced planting machine equipped with robotic arms, positioned in a deforested field under a cloudy sky.

    Smart Forest Automation

    We invite you to follow our development of a next-generation planting machine and the smart reforestation automation system—more advanced than the patented system described below.

    When first introduced, our earlier technology was considered ahead of its time. Today, we’re building on that legacy to solve persistent challenges in reforestation: improving survival rates, reducing costs, and optimizing land use. We will present our new proposals for solutions when we are ready, so stay tuned. Learn more about our innovation strategy on the About page.

    Challenges Associated with Current Planting Methods

    • High Costs: Reforestation remains prohibitively expensive.
    • Low Survival Rates: Poor soil depth leads to early plant failure.
    • Land Inefficiency: Uneven spacing wastes valuable ground.
    • Quality Risk: Improper planting reduces timber quality.

    Real-Time Ground Mapping and AI-Driven Tree Placement – Or old Patent

    The machine scans the terrain using onboard sensors—georadar, infrared, or acoustic systems—to detect soil depth and hidden obstacles like stones and stumps. The system can also integrate aerial data (LiDAR, airborne georadar) for pre-planned precision.

    Frozen Soil Feature

    Extended Season Capability: The system allows planting in frozen soil using rotating drilling tools, thereby extending the planting period in colder regions. Ground assessment can be conducted aerially in advance, and planting is performed using precise GPS coordinates. Cover root plants should be in a dormant phase, and the soil lump must be thawed prior to planting. An increased mortality rate is, of course, anticipated under these conditions.

    While traditional forestry has often overlooked long-term optimization, our approach is built for the next century—combining ecological responsibility with industrial efficiency.

    Final Thought
    Reforestation Reinvented builds on decades of innovation to address persistent challenges in forestry. By combining advanced sensing, AI-driven placement, and extended season capability, we aim to make large-scale reforestation both efficient and sustainable.

    Further Reading:

    Internal Links
    • The Future of Winter Sports: FrykenFrost™ – Race-Ready Snow Guaranteed
    FrykenFrost™ – Surface Cooling System
    Helioshade™: Engineering the Sun — A Scientific Proposal for Planetary Protection


    External References
    International Ski Federation (FIS): Equipment Regulations
    IPCC Sixth Assessment Report