Stroitel Ventures Technology

TECHNOLOGY

Focused on space colony architecture and planetary construction technology, Stroitel utilizes a series of drones and equipment in order to accomplish their building projects. Here are examples of such drones that engineers and field scouts utilize in their day-to-day lives.

Drones

Construction drones in this soft science fiction context represent a transformative advancement in architectural implementation and construction methodology. These sophisticated machines operate on multiple scales, from large-scale structural assembly units to precision-focused finishing drones.

The primary construction drones, classified as Heavy Lift Units (HLUs), utilize advanced anti-gravity technology coupled with traditional mechanical or hydraulic limbs for movement. This dual approach allows them to precisely manipulate massive structural components while maintaining perfect positional stability even in adverse weather conditions. Their multi-jointed manipulator arms incorporate force-feedback systems that can detect and adjust to structural stresses in real time.

Coordination between units occurs through a centralized Quantum Network (QN). This system maintains a real-time digital twin of the construction site, allowing for microsecond adjustments to compensate for environmental factors, material variations, and the dynamic interactions between multiple drone units. The QN also interfaces with architectural planning software, translating complex blueprints into actionated commands for the drone workforce.

Specialized finishing drones complement the HLUs. These smaller units employ molecular-scale fabrication technology to ensure perfect seals and joints between components. They can analyze material composition through integrated spectroscopic sensors and apply appropriate treatments or modifications as needed. Some models incorporate 3D printing capabilities using advanced metamaterials, allowing them to create custom components on-site.

Safety protocols are embedded at both the hardware and software levels. Each drone maintains multiple redundant systems and can seamlessly transfer its current task to nearby units if it detects potential system failures. The entire network operates under an AI oversight system that continuously monitors structural integrity, worker safety zones, and environmental conditions.

SV type

Russian-made drones made for construction work. Known for its crappy programming interface.

• SV-30 - a general-purpose small construction type
  • a beetlelike machine with a curved white shell and six spindly articulated legs. The drone has a pair of fine manipulators and three lenses for a 'face', right below a cluster of antennae almost resembling a mohawk.
• SV-25 M.2 model - a heavier-duty drone used for bigger projects
  • a drone the size of a minifridge and about the same shape, only tipped over. It appears to amble on eight claw-like legs that, thanks to the tracks that crisscross the drone's body, can flip its orientation without ever rotating the main chassis.

TORI

The TORI (Tactical Operational Robotic Intelligence) micro-drone system, developed by Nakamura Robotics in collaboration with the Tokyo Institute of Technology, represents a significant advancement in miniaturized aerial robotics designed for complex industrial environments.

• Technical Specifications Each TORI unit measures only 8.5 centimetres in diameter and weighs 42 grams, making it one of the smallest operational industrial drones. The chassis utilizes an advanced carbon-fiber composite with integrated electromagnetic shielding. Four high-efficiency micro-rotors provide exceptional manoeuvrability, while a central processing core manages the unit's advanced capabilities.
• Swarm Intelligence TORI units operate in coordinated swarms of up to 200 drones, communicating through a proprietary quantum mesh network. Each drone serves as both an independent unit and a node in the larger swarm network, sharing sensor data and computational tasks. This distributed intelligence allows the swarm to adapt to changing conditions and redistribute tasks automatically.
• Specialized Applications The system excels in environments where larger drones cannot operate effectively, such as inside pipe networks, between machinery components, or in confined construction spaces. TORI units can perform detailed structural analysis, conduct microscopic repairs, and create three-dimensional maps of complex industrial environments. Their small size allows them to access areas that would be impossible for human inspectors to reach safely.
• Advanced Capabilities Each unit incorporates multiple specialized sensors, including thermal imaging, molecular composition analysis, and structural stress detection. The drones can dock with specialized tool attachments stored in wall-mounted stations, enabling them to perform tasks ranging from micro-welding to fiber optic cable installation.
• Power Management TORI units utilize wireless charging technology, automatically returning to charging stations when power levels drop below 20%. The swarm maintains continuous operation by cycling units through charging rotations, ensuring constant coverage of the work area.

NOVIKOV

The NOVIKOV Heavy Construction System (HCS) represents the latest development in large-scale construction automation from Russia's Ural Heavy Industries. This formidable platform stands as a testament to Russian engineering's focus on robust, versatile industrial machinery.

• Technical Overview The NOVIKOV system consists of a massive hexapedal platform measuring 12 meters in height when fully extended, with a maximum operational weight of 45 metric tons. Its signature feature is the incorporation of six hydraulically-powered legs that allow stable positioning even on unstable terrain or partially completed structures.
• Construction Capabilities The primary construction array consists of three independently operating manipulator arms, each capable of lifting 15 metric tons. These arms utilize advanced haptic feedback systems and real-time stress analysis to handle delicate operations despite their immense power. The system's central torso can rotate 360 degrees, allowing for comprehensive coverage of the work area without repositioning the entire unit.
• Power Systems NOVIKOV units operate on a hybrid power system combining advanced hydrogen fuel cells with a compact anti-matter battery for extended operations. This dual-power approach ensures continuous operation for up to six months without refuelling, making them particularly valuable for remote construction projects in Siberia and the Arctic regions.
• Control Architecture The system employs a sophisticated AI control system that can operate autonomously or under direct human supervision. Multiple redundant quantum processors manage the complex calculations required for maintaining stability while performing heavy construction tasks. The control interface supports both traditional remote operation and neural-link systems for enhanced operator control.
• Environmental Adaptation NOVIKOV units are specifically engineered for operation in extreme conditions, with operating parameters ranging from -60°C to +50°C. The system's legs incorporate ground-penetrating radar to assess terrain stability, while the main body features active thermal management systems to maintain optimal operating temperatures.

CHERVK

(Челночный Единый Робот Водно-Континентальный / Shuttle Unified Robot for Water-Continental Operations) represents a significant advancement in hybrid tunnelling and underwater drone technology from the Russian Federation's Advanced Robotics Bureau.

• Technical Overview The CHERVK utilizes a cylindrical chassis constructed from pressure-resistant titanium alloys, measuring 4.8 meters in length and 1.2 meters in diameter. The unit features a rotating drill head with diamond-carbide teeth, capable of boring through both solid rock and underwater sediment. Its modular design allows for rapid component replacement in field conditions.
• Propulsion Systems: For tunneling operations, the CHERVK employs a combination of hydraulic drives and plasma-assisted drilling technology. In aquatic mode, it utilizes magnetohydrodynamic propulsion, enabling silent operation at depths up to 3,000 meters. The transition between drilling and swimming configurations takes approximately 45 seconds.
• Specialized Capabilities: The CHERVK's most notable feature is its adaptive boring system, which analyzes substrate composition in real-time and adjusts drilling parameters accordingly. Its advanced sensor suite includes ground-penetrating radar, sonar mapping, and chemical analysis tools. The unit can operate continuously for up to 72 hours without resurfacing, processing excavated material through its internal refinement system.
• Control Architecture: A quantum-encrypted communication system maintains contact with surface control stations through a network of repeater buoys. The drone's AI core can operate autonomously if communications are disrupted, continuing its assigned mission parameters while avoiding geological hazards and maintaining structural integrity of created tunnels.
• Applications: The CHERVK serves both civilian and military applications, including underwater cable installation, subterranean infrastructure development, and covert naval operations. Its ability to transition seamlessly between aquatic and tunneling modes makes it particularly valuable for arctic operations where access points may be ice-covered.

PRODROMOI

The PRODROMOI Advanced Reconnaissance System, developed by the Hellenic Aerospace Industry in collaboration with the University of Athens, represents Greece's entry into autonomous aerial surveillance technology. The system's name draws from ancient Greek military history, where the Prodromoi served as elite reconnaissance cavalry.

• Technical Specifications The PRODROMOI platform utilizes a distinctive delta-wing design measuring 1.8 meters in wingspan while maintaining a remarkably low radar cross-section. Each unit weighs approximately 4.2 kilograms and incorporates advanced composite materials that provide both structural integrity and stealth capabilities. The drone's propulsion system combines electric ducted fans with boundary layer control technology, enabling near-silent operation at altitudes ranging from ground level to 10,000 meters.
• Surveillance Capabilities The system's primary sensor package includes multi-spectral imaging arrays, quantum-enhanced radar systems, and atmospheric composition analyzers. These sensors are housed in a gyroscopically stabilized pod beneath the fuselage, providing 360-degree surveillance coverage. The PRODROMOI can maintain continuous observation missions for up to 48 hours, transmitting encrypted data through both conventional and quantum-secured channels.
• Autonomous Operations PRODROMOI units excel in autonomous operation, utilizing advanced AI systems that enable complex decision-making in dynamic environments. The drones can operate individually or in coordinated groups, sharing tactical information through a secure mesh network. Their navigation system combines traditional GPS with celestial navigation capabilities, ensuring reliable operation even in GPS-denied environments.
• Specialized Features A notable feature of the PRODROMOI system is its adaptive camouflage system, which can alter the drone's surface coloration to match surrounding atmospheric conditions. The platform also incorporates advanced electronic warfare capabilities, including signal intelligence gathering and electronic countermeasure systems.

Siene JSC

Alexandria-based demolition company that branched out into industrial automation. Their documentation is incredibly detailed and incredibly obtuse. Famous for extremely precise demolition work around historical sites. Programming Siene drones involves setting about three times the number of parameters when compared to other manufacturers in the same business, but the results are unquestionable.

• SI-090 "Aqrab"
  • A compact unit, about chest-height when fully extended, built around a central multifocal laser on a telescoping arm. Its hull is covered in intricate geometric patterns that double as heat dissipators. Three primary optical sensors are arranged in a triangle formation, giving it a distinctive "face." The unit's arm can extend to three times its body length and houses both its primary cutting laser and a suite of material analysis tools.

• SI-120 "Dabur"
  • A heavy walker drone the size of a small truck, with six articulated arms ending in various cutting tools. Its hexagonal body contains sophisticated Van der Waals generators that create specific vibration patterns to aid in material breakdown -- though the drone is too heavy to use them to support its own weight. The unit's central processing cluster is capable of real-time structural analysis and can predict collapse patterns with uncanny accuracy. Known for generating a distinctive buzzing sound during operation that gets progressively lower in pitch as larger structures are dismantled.

• SI-150 "Sahra"
  • A heavily armored unit resembling a mechanical tortoise, roughly the size of a compact car. Ornate arabesques are etched into its blast plating, which can withstand significant explosive force. Features four manipulator arms for precise charge placement. The Sahra has an especially advanced simulation suite that can run simulations of blast patterns and structural weaknesses without the need for an offboard mainframe. The unit produces rhythmic, almost musical sounds during its pre-detonation checks, leading operators to joke that it "sings" before each demolition.

FORGE Industrial Dynamics

Avant-garde American company whose plants and logistics are entirely controlled via AI systems. Their documentation and source code are written by neural networks, resulting in frequent inconsistencies. Their manufacturing, however, is top-notch and the on-board features are incredibly advanced. FORGE drones are notable for their extreme adaptability and neuroplasticity; it is not uncommon for drones to adopt the mannerisms of their operators, though this is not an indicator of volition.

• FORGE Foundry
  • A large unit about the size of a SUV and shaped like a pill bug. It moves between job sites on its many hydraulic legs and, once there, unfolds to reveal a multitude of material processing stations; crushers, furnaces, and smelters. Its primary function is to supply refined materials for its sister unit, the FORGE Weaver, to extrude into standard construction elements. In a pinch, it is also capable of directly resupplying those drones equipped with nanofabrication capabilities.

• FORGE Weaver
  • A large arachnid-like unit with eight articulated legs and a central body housing its primary fabrication systems. The "spinneret" is actually a complex assembly of multiple material extruders capable of working with everything from basic metals to exotic composites. Can rapidly produce structural elements while moving, essentially "weaving" buildings into existence. The unit's neural architecture often leads to it developing distinctive movement patterns based on its regular operators - some have been observed to "dance" while working or mimic the gestures of nearby human workers. Contains nanofabrication capabilities for fine detail work and can work in tandem with other FORGE units to create complete structures from raw materials. Despite this, the Weaver has a PR problem that sees it relegated to work away from the public eye.