SAMANSIC Coalition — Comprehensive Services Report
Local Aerial Drone Operations Enabled by EGB-AI
Geological Survey and Aerial Exploration Service — Documented Since 2004
Inspection of Sulfur, Phosphate, and All Raw Materials Before Delivery — New Addition
Implementing Entities: JAI Jordan Aerospace Industries — through SAMANSIC Innovative Teams of Survey
Classification: Real, Documented Service
Date: 2026-10-07

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Executive Summary

The SAMANSIC Coalition, through JAI Jordan Aerospace Industries and in collaboration with SAMANSIC Innovative Teams of Survey, provides an integrated suite of aerial services that includes geological surveying and aerial exploration, as well as pre-delivery inspection of sulfur, phosphate, and all raw materials. These services are supported by EGB-AI capabilities and local aerial drones. Since 2004, our services have demonstrated their ability to deliver accurate and rapid results, as evidenced by a written endorsement from the Jordanian Natural Resources Authority. Today, we are expanding our service scope to include the inspection of hazardous and vital raw materials, such as sulfur and phosphate, using multi-sensor systems and real-time data analysis. This enhances industrial safety, accelerates delivery operations, and guarantees cargo quality.

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Endorsement Since 2004

Since 2004, our services have proven their merit and their capacity to achieve accurate and rapid results. This is demonstrated by a written endorsement from the Jordanian Natural Resources Authority, which confirmed that the results obtained matched its previously approved studies. The Authority praised the scientific and economic value of this capability and recommended its development, its integration with seismic prediction systems, and the expansion of its use in aerial surveying to identify natural resources. This endorsement represents documented testimony to the reliability of the service and its suitability for application in Jordan and the region.

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Implementing Entities

The current implementation is carried out by JAI Jordan Aerospace Industries, which is responsible for the aerial side, aircraft, and equipment, and by SAMANSIC Innovative Teams of Survey, which manages the survey, analysis, documentation, and technical integration teams. The endorsing authority is the Jordanian Natural Resources Authority. The beneficiaries include government agencies concerned with energy, water, and earthquakes; the mineral and natural resource exploration sectors; the mining and raw materials sectors; shipping ports and storage facilities; fertilizer and chemical industries; and neighboring countries to which the service can be extended.

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Purpose and Scope

The purpose of these services is to provide accurate geological surveying, three-dimensional analysis of geological structures, support for natural resource exploration decisions, seismic activity prediction, and pre-delivery inspection of raw material shipments to ensure safety and quality. The scope includes ground geological surveying, aerial surveying using equipped JAI aircraft, identification of faults and fractures and their directions, estimation of the depths of hot and groundwater layers, seismic activity prediction, location of minerals and natural resources, integration of results with seismic measurement systems, provision of services to neighboring countries, preparation of three-dimensional technical reports, inspection of sulfur, phosphate, and all raw materials before delivery, and integration of EGB-AI capabilities with local aerial drones. Out of scope are any unlawful or unauthorized use, any activity inconsistent with natural resource and environmental laws, and any offensive military use.

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Service Principles

The service is founded on scientific accuracy through documented field readings and GPS data; speed in completing survey and analysis in record time; documentation by recording every reading, its location, and its result; integration with seismic systems, aerial surveying, and material inspection; sovereignty as a national service that enhances the value of natural resources; compliance with laws and official agreements; sustainability through capacity development and knowledge transfer; innovation through SAMANSIC’s advanced survey teams and modern analytical tools; and safety by protecting lives and property from hazardous material risks.

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Core Capabilities

The core capabilities include geological polarization, a surveying technique that identifies subsurface geological structures; three-dimensional analysis that produces spatial models of faults and layers; GPS positioning that links every reading to its geographic location with precision; ground surveying using vehicle-mounted equipment; aerial surveying using JAI aircraft to cover wide areas; seismic prediction by analyzing seismic activity and determining probabilities; system integration by combining polarization equipment with seismic measurement equipment; resource analysis to locate minerals and groundwater; technical reporting that produces clear results for decision-makers; regional expansion to provide services to neighboring countries; artificial intelligence support through EGB-AI to improve analysis and data fusion; multi-gas sensing to detect sulfur dioxide, hydrogen sulfide, and volatile material vapors; LiDAR volumetric mapping to build three-dimensional models of raw material stockpiles; multispectral imaging to detect impurities and color changes in raw materials; and instant alerting to issue digital clearances or quarantine orders automatically.

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Service Portfolio

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Geological Ground Survey

This service conducts ground surveys using the geological polarization method, taking precise readings with GPS. Equipment is mounted on equipped vehicles, and results are analyzed to identify geological structures.

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Aerial Resource Survey

This service uses equipped JAI aircraft to cover wide areas and locate minerals and natural resources. The Jordanian Natural Resources Authority recommended this survey to verify the accuracy of the method in identifying resources.

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Fault and Fracture Identification

This service produces three-dimensional maps of the locations and directions of faults and fractures. It helps in understanding geological structure and assessing risks.

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Deep Hot Water Estimation

This service determines the approximate depth of hot and groundwater layers. It supports water exploration and thermal energy applications.

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Seismic Prediction

This service analyzes seismic activity in the region and links geological polarization results with seismic measurement systems to predict the time and location of earthquakes in advance.

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Seismic System Integration

This service studies the feasibility of connecting geological polarization equipment with existing seismic prediction and measurement equipment. The goal is better and more efficient readings.

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Regional Services

This service extends the offering to neighboring countries, achieving significant financial gains and strengthening the Kingdom’s position as a regional center for geological sciences.

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Analysis and Reporting

This service prepares three-dimensional technical reports, maps, and recommendations that are submitted to the competent authorities.

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Training and Knowledge Transfer

This service trains local personnel to operate equipment and analyze results, ensuring the sustainability of the service.

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Integration with EGB-AI and Local Aerial Drones

This service expands today by integrating EGB-AI capabilities with local aerial drones to improve data collection and real-time analysis, while continuing to rely on documented ground and aerial surveying.

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Inspection of Sulfur, Phosphate, and All Raw Materials Before Delivery

This new service uses local aerial drones equipped with multiple sensors to inspect stockpiles of raw materials—such as sulfur, phosphate, and others—before they are loaded onto transport vessels or vehicles, with the aim of ensuring safety, quality, and risk prevention. Raw materials such as sulfur and phosphate, whether in prills, granules, or crushed bulk, present severe operational hazards, including combustible or explosive dust, the release of toxic gases such as sulfur dioxide (SO₂) and hydrogen sulfide (H₂S), and risks of contamination or moisture. Aerial inspection accelerates inspection operations, eliminates human exposure to hazardous zones, and guarantees cargo purity. The multi-sensor inspection framework operates across three scientific phases. First, safety and gas scanning uses highly sensitive electrochemical and non-dispersive infrared (NDIR) sensors to conduct localized plume sniffing around the perimeter of the stockpile, isolating trace thermal decomposition, early chemical hot spots, and toxic leaks, acting as an early warning system against spontaneous ignition. Second, physical integrity and volumetric assessment leverages LiDAR or high-resolution photogrammetry to build an exact three-dimensional model of the bulk pile, allowing logistics teams to compute precise volumetric metrics, assess density, and detect external topsoil contamination or physical displacement caused by moisture degradation. Third, material verification and purity analysis uses optical multispectral imaging payloads to capture distinct light reflectance patterns across the pile; because each material has a distinct color signature—such as yellow for sulfur or white for phosphate—multispectral arrays can immediately identify color inconsistencies indicative of structural impurities, chemical blending, or subsurface moisture pockets that standard cameras fail to register. The standard operating protocol for localized drone testing follows four phases. Phase One is the environmental baseline scan, in which the drone hovers at a designated safe zone before navigating directly over or downwind of the raw material to establish local environmental baselines, recording ambient wind vectors, temperature, and atmospheric gas baselines so that external pollutants do not skew the telemetry data. Phase Two is propeller downwash mitigation, in which the drone is outfitted with extended intake sniffing tubes or programmed to maintain a strict altitude threshold ranging between ten and fifty meters, optimizing sensor intake while keeping the physical pile undisturbed, because the heavy downwash generated by the aircraft’s propellers can kick up highly explosive dust clouds. Phase Three is plume sniffing and thermal profiling, in which the drone is strategically navigated directly downwind of the raw material mass, executing an automated grid pattern to scan for micro-anomalies in temperature and toxic gas concentrations, pinpointing internal degradation or chemical spoilage that could pose an immediate hazard during maritime or overland transit. Phase Four is real-time data telemetry and clearance, in which all collected metrics are transmitted via encrypted, real-time data telemetry directly to the facility or port’s primary logistics platform, and the system automatically cross-references the drone’s findings with safety thresholds, instantly generating a digital clearance ticket to approve the cargo for final loading, or issuing an immediate quarantine halt if any metrics fail compliance.

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Operating Model

The operation begins by identifying the survey area or shipment in cooperation with the competent authority. Equipment is prepared, tested, and mounted on vehicles or aircraft. Readings are collected and their locations are determined using GPS. Data is then analyzed, compared with known results, and reports and recommendations are submitted. In raw material inspection, the four phases are executed precisely, and clearance or quarantine is issued immediately. JAI Jordan Aerospace Industries is responsible for the aerial side, aircraft, and equipment, while SAMANSIC Innovative Teams of Survey manages the survey, analysis, documentation, and integration with EGB-AI.

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Analytical Architecture

The architecture includes field data collection, geological signal processing, three-dimensional analysis, comparison with databases, integration with seismic systems, report preparation, and archiving of results. In raw material inspection, the architecture includes fusion of gas sensor data, LiDAR data, and multispectral imaging, real-time analysis, and issuance of clearances.

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Governance and Compliance

The service is committed to legal review, official permits, access rights to sites, data protection, transparency with competent authorities, and not using results outside authorized purposes. It also adheres to industrial and environmental safety standards in the inspection of hazardous materials.

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Safety

Safety procedures include risk assessment before surveying, flight safety, equipment security, operator training, monitoring of weather conditions, and a field emergency plan. In raw material inspection, additional precautions are taken to avoid stirring up dust and to avoid hot spots, while maintaining a safe altitude and appropriate wind direction.

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Performance Indicators

Key performance indicators include full match with known results; record time for completing survey and analysis; high accuracy in identifying faults and fractures; matching results in water depth estimation; improved predictive capability in seismic prediction; documented official endorsement from competent authorities; promising financial potential for regional expansion; high accuracy in gas detection during raw material inspection; immediate issuance of clearance or quarantine; and one hundred percent reduction in human exposure to hazards.

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Service Levels

Service levels include Level One, urgent survey, for rapid survey execution; Level Two, detailed survey, for comprehensive ground and aerial surveying; Level Three, analysis and integration, for linking results with seismic systems; Level Four, regional expansion, for services to neighboring countries; Level Five, training and development, for building local capacity; and Level Six, raw material inspection, for inspecting sulfur, phosphate, and all raw materials before delivery.

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Risks

Risks include data conflict, addressed by comparison with previous studies; difficult field conditions, addressed by advance planning; equipment failure, addressed by maintenance and redundancy; flight restrictions, addressed by permits and coordination; data protection, addressed by encryption and permissions; unauthorized use, addressed by governance and auditing; ignition of raw material dust, addressed by maintaining safe altitude and avoiding downwash; toxic gas release, addressed by immediate sensing and early warning; and cargo contamination, addressed by multispectral analysis and precise inspection.

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Roadmap

The roadmap begins with documenting current capabilities and official endorsement. It then moves to integrating polarization equipment with seismic systems. Next is expanding aerial surveying using JAI aircraft. This is followed by integrating EGB-AI and local aerial drones. Then comes providing regional services and training personnel. Finally, the raw material inspection service is generalized across ports and industrial facilities.

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Conclusion

The services of the SAMANSIC Coalition, implemented by JAI Jordan Aerospace Industries through SAMANSIC Innovative Teams of Survey, are real services documented since 2004 and endorsed by a written endorsement from the Jordanian Natural Resources Authority. They have proven their accuracy and speed, and their scope now extends to include inspection of sulfur, phosphate, and all raw materials before delivery, enhancing industrial safety, protecting lives and property, and guaranteeing cargo quality. They represent a strategic asset of high value for Jordan and the region.

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Appendix A — Glossary

Geological polarization is a surveying method that identifies subsurface geological structures. JAI stands for Jordan Aerospace Industries. GPS is the Global Positioning System. EGB-AI is an analytical capability that supports service expansion. SAMANSIC Innovative Teams of Survey are the innovative survey teams of SAMANSIC. The Jordanian Natural Resources Authority is the official body granting the endorsement. NDIR stands for non-dispersive infrared. SO₂ is sulfur dioxide. H₂S is hydrogen sulfide. LiDAR is light detection and ranging.

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Appendix B — Mission Report Template

A mission report includes the mission identifier and date, the area and authorizing entity, the equipment, vehicles, and aircraft, the number of readings and their locations, the three-dimensional results, the match with previous studies, the recommendations, and the attachments.

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Appendix C — Pre-Deployment Checklist

The pre-deployment checklist includes obtaining official authorization, defining the test area, preparing and testing equipment, mounting equipment on vehicles or aircraft, verifying GPS, executing the survey, analyzing results, comparing results, preparing the report, and submitting recommendations. For raw material inspection, the checklist additionally includes verifying wind direction, setting safe altitude, preparing intake tubes, and testing gas sensors.