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PREMAX 16 patrol craft underway
Platforms & Systems

Products & Programs

From prototype platforms to development-stage programs and digital products — every entry below is classified by its current public status.

Public Disclosure Notice. All product descriptions, images, performance figures and technical characteristics presented on this website are indicative and may refer to prototypes, development configurations or customer-specific concepts. Final specifications, delivery schedules, equipment configurations and commercial conditions are subject to contract, engineering review, testing, classification, certification, regulatory approval and export-control authorization where applicable. Nothing presented on this website constitutes a binding commercial offer.

Defense & Maritime

Patrol & multi-purpose vessels.

PREMAX 39 fast patrol craft at speedPrototype / Pre-Series

PREMAX 39

Fast Patrol & Combat Craft

Multi-purpose fast patrol and tactical craft for river, lake, port and coastal missions. Developed prototype platform in preparation for serial production. "Fast Response. River Control. Tactical Superiority."

Full technical specification →
PREMAX 16 patrol craft underwayEngineering Development

PREMAX 16

Patrol & Interdiction Craft

Compact patrol and rapid-interdiction vessel engineering program, designed for border, port and inland-waterway security operations.

Full technical specification →
Development Platform

PREMAX 23

Multi-Purpose Patrol Vessel

Mid-size multi-purpose patrol platform under development for extended-endurance coastal and riverine missions.

Autonomous Systems Program

PREMAX USV

Unmanned Surface Vessel

Program covering autonomous and remotely operated maritime platforms for surveillance, security and mission-support roles.

Mission-Configurable Hull Platform

Multi-purpose vessel variants.

The PREMAX patrol hull platform is engineered for rapid mission reconfiguration — from tactical patrol livery to civil-protection roles such as fire response and search & rescue, supporting coast guard, port authority and emergency-response operators.

Leisure & Lifestyle Tender

BW 9.0 — Belgrade Waterfront Edition

A civilian leisure tender derived from PREMAX's hull-engineering and waterjet/outboard integration expertise — a compact luxury day-boat for urban waterfronts and river cruising, finished in real teak with premium upholstery.

Length overall8.95 m
Beam2.85 m
Draft0.60 m
Displacement≈2,300 kg
Fuel capacity400 L
Water capacity100 L
Passengers10
Engine2 × outboard, ≈200 HP each
Max speed42+ knots
Cruising speed28–32 knots
  • Full teak deck (real teak) and premium upholstery
  • Large panoramic windshield, sunbed & convertible seating
  • LED ambient lighting, optional bow thruster
BW 9.0 luxury tender specification and layout

Concept specification. Final configuration, options and pricing confirmed at order.

Full Technical Specification

PREMAX 39 — Multirole Fast Combat Boat

A high-performance craft designed for coastal and inland security operations — including counter-smuggling, counter-terrorism support, port and harbor protection, and special-operations insertion/extraction, alongside a range of law-enforcement and military support tasks.

Hull & Construction

All-aluminum hull (marine-grade 5083 alloy), TIG/MIG welded, with a deep-V bottom and a specially profiled bow that generates a spray screen to conceal the boat and weapon operators. Areas exposed to high stress during landing operations are reinforced. Bilge pumps maintain buoyancy even in cases of severe hull damage, and the double bottom provides stowage compartments for ammunition, tools and supplies. Large sound- and heat-insulated hatches provide easy access to the engine and jet units; the stern platform covers the waterjets and is perforated to shed water. The cockpit includes twin bilge wells, interior railings and anti-slip deck coating throughout. The centrally placed control desk is built to protect the boat operator.

Propulsion & Systems

  • Two electronically controlled diesel engines with waterjet propulsion; wet exhaust for low acoustic and thermal signature
  • Single aluminum fuel tank in the double bottom with electronic level indication at the helm and remote fast-closing valve
  • Raw-water cooling via four filtered strainers with manual flushing valves
  • Integrated navigation suite: radar, sonar and GPS on a multi-function display, plus a panoramic thermal observation system (360°, human detection beyond 1,000 m)
  • Internal crew intercom, separate tactical radio net and standard marine VHF communications
  • Road-trailer transportable; hull fitted with lifting points for air-lift / parachute-drop deployment

Weapons & Protection

Five weapon stations accommodate a range of light machine guns, grenade and smoke-pot launchers, configured to customer requirement. Add-on bullet-resistant panels can be fitted to the inner hull sides for additional crew protection. Specific weapon integration, fire-control and ammunition data are shared only through the controlled data room following NDA execution.

PREMAX 39 on river operations
Length overall11.98 m
Length on waterline10.05 m
Beam (maximum)3.34 m
Beam (waterline)3.00 m
Static draft0.7 m (1.2 m sea version)
Height from keel1.6 m
Displacement (dry / max)6,500 / 10,500 kg
Fuel capacity1,000 L
Engines2 × diesel, common-rail, ≈550 HP
Maximum speed45–50 knots
Range at top speed≈200 nm / 5 h
Crew6–8
Diver / troop transport4–8 (up to 12 total onboard)

Figures indicative for the reference configuration; final specification, weight and performance vary with tactical fit-out and mission equipment.

Full Technical Specification

PREMAX 16 — Fast Patrol Vessel / Interceptor

A high-performance interceptor built for rapid troop insertion/extraction, patrol duty, anti-trafficking and anti-smuggling operations, and port blockade tasks. Its small footprint allows the craft to be concealed close inshore under camouflage by day and to operate deep into contested waters by night.

Hull & Construction

Hull built entirely from marine-grade aluminum alloy in a deep-V configuration with a reinforced bow region for beach-landing loads. The double bottom is filled with PU foam so the vessel remains afloat even after significant hull damage, and the forward collision compartment is likewise foam-filled. Large, insulated hatches with gas-spring supports provide easy engine and waterjet access. A perforated stern platform covers the jet units and serves as a boarding platform. The cockpit includes twin bilge wells, interior railings and anti-slip decking throughout, with a protected command console amidships seating the helmsman plus four crew.

Propulsion & Systems

  • Two diesel engines (600–800 kW) driving twin waterjets, electronically controlled with wet exhaust for reduced noise and thermal signature
  • Twin aluminum fuel tanks in the double bottom, electronic level indication, dual fuel filter/water separator per engine
  • Raw-water engine cooling through four filtered strainers with flushing connections
  • Dual electric bilge pumps per well with manual backup; automatic powder fire suppression in the engine room plus six portable extinguishers
  • 24V electrical system with three battery banks (cross-connectable in emergency), 24 kW auxiliary generator for standby power
  • Radar with helm display, mast-mounted FLIR thermal/night-vision camera, dual searchlights, GPS, intercom and VHF radio

Weapons & Protection

Six weapon-mounting stations support various caliber machine guns, grenade launchers and smoke-grenade launchers, with stern positions available for tactical or interceptor-role weapon fits. Add-on bullet-resistant panels mount to the inner hull sides, with engine-room sides kept clear of fixed equipment for straightforward armor fitting. Specific weapon integration and ammunition data are shared only through the controlled data room following NDA execution.

PREMAX 16 patrol craft 015 underway at speed
Length overall16.0 m
Beam overall3.6 m
Draft1.1 m
Engines2 × diesel, 600–800 kW
PropulsionTwin waterjets
Maximum speed45 knots (full load)
Endurance8 h at cruising speed
Crew3–4 (mission dependent)
Passenger / troop capacityUp to 20
Auxiliary power24 kW generator

Figures indicative for the reference configuration; exact specification confirmed at contracting per customer mission requirements.

Mission-Configurable Variants

The PREMAX 16 hull platform supports rapid reconfiguration for tactical interceptor, civil-protection and emergency-response roles, sharing the same propulsion, hull and systems architecture.

UAV & Advanced Systems

Unmanned platforms & ground systems.

PREMAX 170 unmanned aerial platform in flightPrototype Development

PREMAX 170

Unmanned Aerial Platform

Fixed-wing UAV platform in prototype development, engineered for reconnaissance and payload-carrying missions.

PREMAX 600 tactical transport UAV datasheetDevelopment Program

PREMAX 600

Tactical Transport Drone UAV

Heavy-payload fixed-wing UAV for cargo transport, logistics and special operations, with hybrid gasoline-electric propulsion delivering up to 300 km range at 60 kg payload.

Full technical specification →
Development & Demonstration

PREMAX 600 LR

Long-Range Logistics / Reconnaissance UAV

Long-range multi-purpose logistics and reconnaissance unmanned platform. Currently a development document; declared performance figures require further analysis and ground/flight testing.

VULKAN-200 unmanned platform in flightPrototype Development

VULKAN-200

Montenegro's First Tactical UAV Program

Medium-class tactical fixed-wing UAV positioned as a national development program — dual-use civil-security, industrial and mapping platform, in its current phase without combat-system integration.

Full technical specification →
PREMAX 600 LR Portable GCS ground control stationSystem Development

Portable GCS

Ground Control Station — PREMAX 600 LR

Man-portable, IP67-rated ground control station developed for field deployment with PREMAX unmanned aerial platforms — dual sunlight-readable displays, integrated telemetry/video links and portable UPS.

PREMAX Advanced GCS Mk.2 tactical ground control stationDevelopment Architecture

Advanced GCS Mk.2

Advanced Tactical Control Station

Next-generation modular ground control station architecture for PREMAX 600 LR, PREMAX 170 and future UAV systems — multi-platform control, ISR/AI mission processing and redundant secure communications.

Full Technical Specification

PREMAX 600 — Tactical Transport Drone UAV

A heavy-payload, fixed-wing flying-wing UAV designed for cargo transport, logistics missions and special operations. Hybrid gasoline-electric propulsion enables an operational range of up to 300 km with a 60 kg payload (up to 500 km unloaded), with fully autonomous or remote-controlled operation.

Airframe & Construction

Flying-wing carbon-fiber composite structure with Kevlar reinforcement, honeycomb core, titanium motor mounts and aluminum CNC components. The secure, shock-absorbing cargo compartment (900 × 450 × 320 mm usable volume) includes electrical insulation and locking for a payload of up to 60 kg.

Hybrid Propulsion System

  • 2-cylinder gasoline engine (32 HP) driving a 15 kW generator
  • 22.2V / 4 kWh Li-ion battery buffer, 2 × 7.5 kW electric motors (15 kW total)
  • 32 L fuel tank, 8 L oil capacity; 3-blade carbon variable-pitch propeller

Navigation, Communication & Payload

GPS/GLONASS/Galileo, INS, barometric and radar altimeter, LIDAR and RTK GPS for precision navigation. Communication via 900 MHz / 2.4 GHz / 5.8 GHz links, 4G LTE/5G, optional SATCOM, AES-256 encryption and a dual data-link architecture. Autopilot functions include waypoint navigation, return-to-launch/home, automatic takeoff/landing, obstacle avoidance and payload release. Standard sensor payload: 4K EO camera, thermal camera, laser rangefinder and LIDAR. Mission-specific sensor and communications payload configurations are shared through the controlled data room following NDA execution.

PREMAX 600 tactical transport UAV datasheet
Length / wingspan / height2450 / 5700 / 620 mm
Wing area4.3 m²
Empty weight52 kg
Max payload60 kg
Max take-off weight152 kg
Max / cruise / min speed180 / 120–130 / 55 km/h
Service ceiling6,000 m
Range (with 60 kg payload)300 km
Range (unloaded)500 km
Endurance3–4 h
Wind resistance18 m/s
Operating temperature-20°C to +50°C

Ground support: transport container, parachute drop system and electric winch system. Applications: military logistics, humanitarian aid, surveillance and disaster relief. Figures indicative for the reference configuration.

Full Technical Specification — Concept / Pre-Project Stage

VULKAN-200 — Montenegro's First Tactical UAV Program

VULKAN-200 is positioned as a national UAV development program for Montenegro — encompassing design, integration, assembly, testing, operator training, maintenance and future serial production, not just a single aircraft. In its initial development phase the platform is a dual-use civil-security, industrial and mapping system, without combat-system integration.

Airframe & Construction

Modular composite fuselage in three zones (forward sensor/avionics bay, center fuel tank/wing carry-through/payload, aft engine and tail), with carbon/epoxy and glass/epoxy structure and aluminum hardpoint fittings. Wing sections are detachable for transport, with a V-tail or inverted V-tail configuration for clean airflow around the pusher propeller, and fixed tricycle landing gear for short-strip operation from paved, concrete or prepared unpaved surfaces.

Propulsion & Avionics

  • Single piston or rotary engine, 30–45 hp, pusher-propeller configuration, electric start, air or liquid cooling
  • Professional autopilot with manual override, stabilized, auto-mission, loiter, return-to-home, lost-link and emergency-landing modes
  • Core flight-sensor suite: GNSS, IMU, barometric altimeter, magnetometer, pitot-static system and flight data recorder

Mission Payload & Data Link

Modular sensor architecture — EO day camera, IR/thermal camera, stabilized gimbal, mapping camera, multispectral sensor, AIS receiver, communications relay and weather package; the initial development phase focuses on one primary EO/IR sensor and one secondary mapping sensor. Communications comprise a line-of-sight C2 link, telemetry, video and service links with an autonomous return-on-loss-of-link mode, targeting an 80–150 km LOS radius in the first prototype; SATCOM/BVLOS capability is planned for a later phase. Ground control is available in portable (transit-case) and vehicle-integrated configurations. Detailed system architecture and interface documentation are shared through the controlled data room following NDA execution.

VULKAN-200 unmanned platform on ground
Maximum take-off weight180–220 kg (200 kg nominal)
Payload25–45 kg
Wingspan7.5–8.8 m
Length / height4.8–5.6 / 1.5–1.9 m
Wing area5.5–7.0 m²
Empty weight90–120 kg
Cruise / max speed90–120 / 160–190 km/h
Operational ceiling3,500–5,500 m AMSL
Endurance (development target)8–14 h
Operational radius (LOS)80–150 km
Takeoff / landing distance150–250 / 120–220 m

Pre-project concept specification, Rev A0. Figures are design targets subject to confirmation by CAD/CAM modeling, structural analysis, and ground and flight testing.

Primary Missions

Border SurveillanceAdriatic Maritime SurveillancePort & Critical Infrastructure MonitoringEarly Wildfire DetectionMountain Search & RescueInfrastructure & Pipeline MonitoringMapping & SurveyingCivil Protection Support

Development Phases

0–1

Requirements & Pre-Design — ≈90 days

SRS, baseline configuration, mission profile, general-arrangement drawing, mass and CG estimate, aerodynamics, engine selection.

2

CAD/CAM & Structure — ≈90 days

3D model, FEM structural analysis, production drawing pack.

3–4

Procurement & Prototype Build — ≈150–210 days

Tooling, materials, engine, avionics and sensor procurement; completed Rev A airframe.

5–6

Ground Testing & First Flight — ≈45–90 days

Engine run, taxi trials, communications and CG verification, first controlled flight.

7–8

Envelope Expansion & Demonstration — ≈120 days

Extended autonomy, speed and altitude testing, mission-sensor integration, demonstration for government users and partners.

9

Pre-Series — 6–12 months

VULKAN-200 Rev B pre-series configuration: extended endurance, stabilized EO/IR, 100+ km data link.

Realistic horizon: 9–12 months from program start to a credible demonstrator, approximately 18 months to a stable pre-series configuration.

Indicative Program Budget

Cost CategoryIndicative Range
Design & engineering€150,000 – €250,000
CAD/CAM, analysis & documentation€80,000 – €150,000
Tooling & composite production€120,000 – €250,000
Engine, propeller & fuel system€40,000 – €90,000
Avionics & autopilot€60,000 – €150,000
EO/IR sensor€80,000 – €250,000
Data link & antennas€40,000 – €120,000
Ground control station€60,000 – €180,000
Testing & test range€80,000 – €180,000
Training & documentation€40,000 – €100,000
Contingency / risk reserve€100,000 – €250,000
Indicative demonstrator cost€750,000 – €1,800,000
Indicative program to pre-series€2,000,000 – €4,500,000

Indicative planning ranges from pre-project concept documentation, Rev A0. Figures are not a committed budget and are subject to vendor quotation, engineering review and final program approval. Request Data Room Access →

Energy & Infrastructure

Power generation programs.

SMR small modular reactor program overviewPre-Feasibility / Owner Requirements

Small Modular Reactor (SMR) Program

Reference Concept: 1 × 300 MWe, Grid-Connected

Pre-feasibility and owner-requirements stage program for a Gen III+/advanced small modular reactor power plant, targeting low-carbon baseload generation with passive safety systems and a phased, multi-module expansion path. Final technology, capacity, site and licensing basis remain subject to formal studies and regulatory process.

≈€2.4bn
CAPEX (base case)
90%
Capacity Factor
10–15 yrs
Decision to COD
Full power, cost & schedule detail →
SMR reactor cutaway and site diagramConcept Diagram

SMR — Plant & Reactor Configuration

Containment, Steam Generation & Grid Interconnection

Illustrative plant configuration showing reactor containment, steam generator, primary circulation and grid interconnection. Detailed technical documentation, feasibility study and financial model are available to qualified partners via the Investor & Partner Room under NDA.

Emerging Development Programs

Early-stage concepts under evaluation.

Additional industrial and power-generation concepts currently at pre-feasibility / business-case stage. Figures below are indicative planning parameters only, not committed budgets or vetted financial projections.

Iraq Gas Pipe Manufacturing Plant concept visualizationConcept / Business Case

Gas Pipeline Manufacturing Plant — Iraq

Industrial & Infrastructure

Early-stage concept for a steel gas-pipeline manufacturing facility in Iraq, targeting government infrastructure, energy-sector and oil & gas customers across the Middle East.

500,000 t
Target Capacity / yr
500
Planned Workforce
≈$200m
Indicative CAPEX
Jordan oil refinery concept visualizationConcept / Business Case

Oil Refinery — Jordan

Refining & Petrochemical

Early-stage concept for a large-scale refined-petroleum-products facility in Jordan, positioned to supply industrial manufacturers across Europe and the United States.

1,200
Planned Workforce
EU / US
Target Export Markets
≈$4bn
Indicative CAPEX
Concept / Business Case

Compact Hydro Power Units — "Ilinčić"

Small-Scale Renewable Manufacturing

Early-stage venture for the manufacture of compact mini-hydro turbine units for the Balkan regional market, based in Montenegro, targeting farms, rural households and small off-grid operators.

Solar Power Plant Montenegro concept visualizationConcept / Business Case

Solar Power Plant — Montenegro

Solar Power

Early-stage concept for a grid-connected solar power plant in Montenegro, targeting households, communities and commercial offtake alongside government renewable-energy incentive programs.

50 MWp
Installed Capacity
≈75 GWh
Indicative Annual Output
≈60,000 t
CO₂ Avoided / yr
Concept / Pre-Project Engineering

Persian Gulf Fixed Link — Bandar Abbas–Qeshm Island, Iran

Marine & Transport Infrastructure

Early-stage engineering and cost concept for a bridge-causeway fixed link across the Strait of Hormuz, connecting the Iranian mainland at Bandar Abbas with Qeshm Island. Scope covers post-tensioned concrete deck spans, cast piers and steel-pipe marine foundations, and a swing-bridge section providing a navigable channel for shipping traffic. Deep-water foundation design is informed by published geotechnical ground-improvement research for the crossing corridor.

Fixed Link
Bandar Abbas ↔ Qeshm
Swing Bridge
Navigation Channel
≈€650–670m
Indicative Construction Cost
Waste-to-Energy plant process flow diagram — Nikšić, MontenegroConcept / Preliminary Technical Description

Waste-to-Energy Plant — Nikšić, Montenegro

Waste-to-Energy

Preliminary technical concept for a combined power and district-heating plant in Nikšić, burning municipal solid waste on a water-cooled grate combustion system feeding a dedicated steam turbine generator.

5 MWe
Electrical Output
20 MWt
Boiler Capacity
5,000 t
Waste Throughput / mo
Full plant configuration & emissions detail →
Concept / Initial Business Plan

Waste-to-Energy Plant — Riyadh, Saudi Arabia

Waste-to-Energy

Early-stage concept for what would be the first municipal waste-to-energy power plant in Saudi Arabia, processing regional municipal solid waste from the Riyadh area into dispatchable electricity for public-utility offtake while reducing landfill volumes for the region.

≈900 t/day
Design MSW Throughput
≈47 MW
Net Electrical Output
65%
Ash Volume Reduction

All programs above are at internal business-case / pre-feasibility stage. Detailed financial models are preliminary planning tools and are not published; qualified partners may request further information via the Investor & Partner Room.

Full Plant Configuration — Concept / Preliminary Technical Description

Waste-to-Energy Plant — Nikšić, Montenegro

A 5 MWe combined power and district-heating plant burning municipal solid waste on a water-cooled grate combustion system, designed to meet EU industrial-emissions standards from the outset. The plant is divided into six functional islands: refuse handling & feeding, WTE boiler, steam turbine, flue-gas treatment, balance of plant, and power transmission & distribution.

Refuse Handling & Combustion

Municipal solid waste is delivered daily and tipped into an enclosed concrete storage pit, then transferred by bridge crane and grapple to a shredder for size reduction before feeding the boiler via a rubber-belt elevator, with magnetic separation of ferrous scrap ahead of the grate. Combustion takes place on a water-cooled, sloped grate system with primary/secondary air supply, auxiliary start-up burners and an integrated horizontal boiler; a urea-based SNCR system controls NOx directly in the furnace.

Steam Turbine & Flue-Gas Treatment

  • Controlled extraction-condensing steam turbine, single flow / single casing, coupled through a reduction gear to a 5.5 MVA, 6 kV synchronous generator
  • Two-stage particulate control (electrostatic precipitator + bag filter), dry sodium-bicarbonate and activated-carbon injection for acid gases, heavy metals and dioxins/furans
  • Power evacuation via 6/20 kV main transformer and medium-voltage switchgear, with auxiliary 6/0.4 kV distribution and standby diesel generation

Designed for 8,000 h/year availability (annual 2-week shutdown plus 1-week intermediate maintenance) and a 25-year service life, with emissions engineered to meet Directive 2010/75/EU on industrial emissions. Full P&ID drawings and the mass/heat balance are shared through the controlled data room following NDA execution.

Waste-to-Energy plant overall process flow diagram
Boiler capacity20 MWt
Combustion grate thermal load22 MWt
Electrical output5 MWe (5.5 MVA, 6 kV)
Steam pressure / temperature at battery limit54 bar g / 440 °C
Boiler feed-water temperature170 °C
Waste feed rate≈7 t/h (5,000 t/month)
Waste low calorific value (design)≈2,500 kcal/kg
Annual availability8,000 h
Design service life25 years

Preliminary technical description, Belgrade, Nov 2025. Figures are pre-project design parameters subject to detailed engineering and vendor confirmation.

Process Diagrams

Real Estate & Digital

Development & technology programs.

PREMAX Residences concept render — exterior daytimeDevelopment Program

PREMAX Residences

Premium Residential & Mixed-Use

Premium residential development program — a boutique multi-floor building set within a landscaped hillside site, applying contemporary architecture, energy efficiency and professional project management standards.

More on Real Estate Development →
Concept & Development

AI Project Control Platform

Digital Platform

AI-enabled project control platform in concept and development, designed to support budget, schedule, risk and document control across PREMAX programs.

Urban Digital Twins

Municipal decision-support platforms.

Working Proposal — City of Belgrade

Digital Twin Belgrade (BGDT)

Urban Digital Twin

A continuously updated, geospatially grounded digital representation of Belgrade linking assets, networks, events and processes with historic and near-real-time data — built as decision-support infrastructure, not a representational 3D model.

36 mo
To Full Operating Capability
≈€13.34m
Indicative CAPEX
17
Municipalities Covered
Full program overview →
Working Proposal — Municipality of Nikšić

Digital Twin Nikšić (NKDT)

Urban Digital Twin

A smart-management platform for space, mobility, energy, water and public services in Nikšić, covering the urban core, the industrial-energy zone and the Krupac / Slano / Vrtac lake and karst-water catchments.

30 mo
Initial Implementation
≈€4.66m
Indicative CAPEX
3
Demonstration Zones
Full program overview →
Heritage-Led Hospitality

Flagship destination program.

Fort Kosmač Heritage Resort concept render — daytime aerial view above BudvaConcept / Preliminary Development Framework

Fort Kosmač Heritage Resort & Casino

Brajići, Budva, Montenegro

Conservation-led restoration of the historic Kosmač fortress into a five-star heritage resort above the Budva Riviera, combining hospitality, wellness, gastronomy and cultural programming with the fortress as the cultural and brand nucleus.

80–100
Hotel Keys (Base Case)
2,000–3,000 m²
Wellness Center
≈€65–145m
Early Indicative Range
Full development framework →
Fort Kosmač Heritage Resort concept render — night aerial view with gondolaConcept Visualization

Restored Fortress & Panoramic Gondola Concept

Illustrative Night View

Illustrative visualization of the restored fortress silhouette, terraced resort volumes and an optional Budva–Kosmač gondola link, evaluated as a separate concession and feasibility workstream outside the resort's opening critical path.

Working Proposal — Rev A0, July 2026

Digital Twin Belgrade (BGDT)

Belgrade needs a digital twin as decision-making infrastructure, not a representational 3D model. BGDT is proposed as a permanently updated, geospatially grounded digital representation of the city, connecting assets, networks, events and processes with historic and near-real-time data — so city services can safely test a scenario before deciding: a street closure, a new bus line, a construction plan, a downpour, a heatwave, a network fault or a change in maintenance regime.

Approach & Principles

The program does not begin with buying "one big platform." It begins with a data catalogue, shared identities for urban objects, exchange rules and proof of value through pilot zones — federating existing systems (urban planning GIS, traffic ITS, environmental monitoring, utility SCADA) rather than replacing them. Built on open standards — OGC, ETSI NGSI-LD, BIM/IFC and MIMs Plus — aligned with the EU Local Digital Twins Toolbox and CitiVERSE framework, moving Belgrade from an "awareness" level twin toward a predictive level, with high-impact automated decisions explicitly out of scope absent separate legal and ethical approval.

Portfolio of Urban Twins

  • DT-MOB Mobility, DT-RES Resilience, DT-PLAN Planning — traffic regimes, flood/heat exposure, urban-development scenario testing
  • DT-UTIL Utility Networks, DT-GREEN Environment, DT-CAPEX Investment — works coordination, heat/green-cover prioritization, geolocated capital-project risk

Priority pilot zone: "Ušće — Center — Sava Amphitheater", spanning parts of New Belgrade, Stari Grad, Savski Venac and the Zemun riverfront — chosen for its concentration of bridges, public transit, major events, tourism flows, active construction, and river/heat risk. The full program document, data-source annex and risk register are shared through the controlled data room following NDA execution.

Region population (2022 census)1,681,405
Municipalities in final coverage17
Priority urban twins6
Time to full operating capability36 months
18-month milestonePilot zone, 3D base, ≥20 data flows
Indicative CAPEX (Class 4, +15% reserve)€13.34m
Year 1 / Year 2 / Year 3 CAPEX€3.10m / €5.35m / €4.89m
Indicative OPEX post-M36€1.55m / year

Working proposal for the City of Belgrade, Rev A0, July 2026. Figures are indicative, excl. VAT, and are not a committed budget; full investment requires independent cost assessment following data and contract audit. Request Data Room Access →

Working Proposal — Rev A0, July 2026

Digital Twin Nikšić (NKDT)

A program-level implementation package for the Municipality of Nikšić: smart management of space, mobility, energy, water and public services — defining products, architecture, pilot zones, budget, data, security, procurement, acceptance and the operating model.

Portfolio & Demonstration Zones

  • NKDT-PLAN Space & Assets, NKDT-MOB Mobility, NKDT-WATER Water & Climate, NKDT-ENERGY Energy & Industry, NKDT-GREEN Environment, NKDT-CULTURE Heritage & Tourism
  • Zone A — Urban core: Trg Slobode, Bedem, Trebjesa, bus/rail zone (PLAN, MOB, GREEN, CULTURE)
  • Zone B — Industrial-energy zone: priority industrial and brownfield sites (ENERGY, GREEN, PLAN)
  • Zone C — Lakes & karst waters: Krupac, Slano, Vrtac and connected priority catchments (WATER, GREEN, CULTURE)

Public viewer with open, aggregated data for citizens, businesses, schools and researchers runs alongside a segmented operational environment (MFA, RBAC/ABAC, audit, SIEM) for authorized municipal services and public utilities. The full program document and data-source annex are shared through the controlled data room following NDA execution.

Initial implementation period30 months
Demonstration zones3
Portfolio products6
Indicative CAPEX (+15% reserve)€4.66m
Year 1 / Year 2 / M25–M30 CAPEX€1.65m / €2.10m / €0.91m
Indicative OPEX post-M30€0.52m / year

Working proposal for the Municipality of Nikšić, Rev A0, July 2026. Figures are indicative, excl. VAT, and are not a committed budget; investment is conditioned on passing a Gate 1 review of data, rights, risk and benefits. Request Data Room Access →

Development Framework — Preliminary, Rev A

Fort Kosmač Heritage Resort — Brajići, Budva, Montenegro

Fort Kosmač is positioned as a nationally significant heritage-led destination above the Budva Riviera: a restored nineteenth-century fortress combined with a discreet five-star hospitality, wellness, gastronomy, cultural and events program. Heritage stewardship governs all interventions — the restored fortress is the cultural and brand nucleus, with new construction subordinate in scale, placement and visual impact.

Recommended Base Case

The fortress is restored for cultural interpretation, a signature lobby/lounge, selected suites, events and panoramic gastronomy. New hotel volumes of 80–100 keys sit in low-rise, terraced blocks outside the principal heritage fabric, stepped into the terrain to remain visually subordinate to the fortress silhouette. The base resort case is designed to be viable in its own right — without gondola or casino revenue.

Governing Principles

  • Heritage first — authenticity, fabric and public meaning of the fortress govern every intervention
  • Reversible, lightweight new insertions compatible with historic masonry; new build terraced and terrain-led rather than competing with the fortress skyline
  • Public value embedded from the start — access, interpretation, local employment and a funded conservation maintenance plan

An optional discreet VIP gaming component and a separate Budva–Kosmač panoramic gondola concession are under evaluation as distinct workstreams, each subject to its own licensing, feasibility, environmental and financing gates — neither is assumed in the base underwriting case. The full Development Bible, conservation management framework and site investigation package are shared through the controlled data room following NDA execution.

Fort Kosmač annotated concept master plan
LocationTvrđava Kosmač, Brajići, Budva
Restored fortress gross area2,000–3,000 m²
Hotel keys80–100
Guestroom / suite GFA7,500–11,000 m²
Wellness center2,000–3,000 m²
Food & beverage1,800–2,800 m²
Events & meetings800–1,500 m²
Back of house25–35% of hospitality GFA

Preliminary planning allowances, Development Bible Rev A, July 2026. Subject to measured survey, heritage approvals and concept design; the previously circulated indicative range of €65–145m is explicitly not a budget.

Demand Segments

Luxury LeisureWellness & RecoveryCelebrations & BuyoutsCorporate RetreatsCulture & HeritageDay Visitors

Phasing Strategy

0

Control & Evidence — 0–12 months

Rights, surveys, heritage baseline, concept design and feasibility.

1

Stabilization & Enabling Works — 6–24 months

Emergency conservation, access, utilities strategy, temporary visitor interpretation.

2

Core Resort Delivery — 18–48 months

Fortress restoration, hotel, wellness, back-of-house, roads, landscape and pre-opening.

3

Destination Expansion — 36–72 months

Residences or additional keys, extended cultural and events platform.

4

Panoramic Mobility — separate track

Gondola concession, only after corridor, demand, EIA and finance approval.

Indicative phasing from the Development Bible, Rev A. Gaming and gondola components are excluded from the resort's opening critical path and underwritten separately. Request Data Room Access →

Concept Visualizations

Conceptual visualizations, not an approved architectural design. All areas, capacities, costs and schedules are preliminary unless supported by a named survey, design or approved study.

New Strategic Direction

PREMAX Space Systems — future product lines.

Enabling the future of orbital manufacturing: autonomous production systems, robotic space infrastructure and AI-driven industrial platforms for the emerging space economy. All items below are early-stage concept product lines, not yet in engineering development.

Concept visualization of an autonomous orbital manufacturing unitConcept Visualization
Concept / Strategic Vision

PREMAX Orbital Manufacturing Cell (OMC)

Orbital Manufacturing

Modular autonomous production unit for orbital factories, integrating a robotic manipulator, 3D printer, sensor suite, AI controller, camera system and autonomous maintenance.

Concept / Strategic Vision

PREMAX Space Factory OS

Digital Platform

Intelligent software platform for managing autonomous industrial operations in space — AI production management, Digital Twin, maintenance planning, logistics and quality control.

Concept / Strategic Vision

PREMAX Orbital Robotics

Space Robotics

Next-generation robotic manipulators, six or seven degrees of freedom, for orbital assembly, welding, inspection and servicing.

Concept / Strategic Vision

PREMAX Autonomous Inspection Drone

Space Robotics

Small free-flying robotic inspection system for orbital stations and manufacturing facilities — joints, solar panels, modules and radiators.

Concept / Strategic Vision

PREMAX Digital Twin Platform

Digital Platform

Real-time digital simulation and monitoring environment for autonomous space production, supporting predictive maintenance and process optimization.

Concept / Strategic Vision

PREMAX Orbital Logistics Vehicle

Orbital Manufacturing

Autonomous transport vehicle for moving materials and components between modules of an orbital factory.

PREMAX Space Systems is positioned as a technology and equipment supplier to the orbital economy — not a launch-vehicle or satellite manufacturer. Long-term ambition: PREMAX Orbital Factory (POF-1), envisioned as a first European private orbital manufacturing platform. More on the Space Systems division →

Classification Key
PrototypeBuilt & tested platform, pre-series
DevelopmentActive engineering / demonstration program
ConceptConceptual or architecture-stage program
Technical Information

Request Controlled Technical Information

Detailed technical documentation, CAD models and configuration data are shared only through a controlled data room following partner identification and NDA execution.