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ATOMIK BOX

The nuclear shelter designed as an integrated scientific system.

We do not simply design buried structures. We design intelligent, monitored environments, optimised to concretely increase the chances of survival in extreme radiological scenarios.

0Design attenuationtarget defined per scenario
0Monitoring channels 
0Design autonomydays · reference configuration
0Continuous supervision 

Figures and values on this page are illustrative.

The starting point

Building a concrete room is relatively simple. Proving it can save lives is another job entirely.

The difference is not how thick a wall is. The difference is knowing, with numbers, what it protects from, for how long, and with what margin.

Conventional bunker

  • Reinforced concrete as the only protection strategy
  • Thicknesses defined on generic criteria
  • Standard plants, not sized on the scenario
  • No scientific measurement of the protection achieved
  • Procedures left to the occupants’ memory
  • Limited or absent radiological monitoring
  • Autonomy managed statically

ATOMIK BOX

  • Defined, documented risk scenario
  • Physical simulation of radiation transport
  • Multilayer shielding optimised on the scenario
  • Internal and external radiometric monitoring
  • Decision-support software
  • Automated, guided protocols
  • Dynamic management of air, energy, water and supplies
  • Strategies for prolonged occupancy
Reference scenarios

What it protects from, and with which strategy.

A shelter does not protect “from everything”. It protects against defined scenarios, with calculated margins. For each family of threats ATOMIK BOX adopts a specific, declared and verifiable technical strategy.

Radiological and nuclear

Risks considered

Fallout, gamma exposure, neutron component, air and surface contamination.

System response

Optimised multilayer shielding, control of streaming paths, internal and external dosimetry, decontamination protocols.

Biological

Risks considered

Contaminated aerosols, pathogens, contamination carried in through entrances.

System response

High-efficiency filtration, overpressure, compartmentalisation, transition zones and entry procedures.

Chemical and industrial

Risks considered

Industrial releases, fires, airborne toxic substances, water contamination.

System response

Activated-carbon filters, air tightness, air-quality monitoring, water reserve management.

Electromagnetic and blackout

Risks considered

Prolonged loss of the power grid and communications, electromagnetic disturbance.

System response

Autonomous power with load management, protected and redundant critical equipment, backup communications.

Natural and structural events

Risks considered

Seismic actions, overpressures, flooding, accidental site loads.

System response

Structural verification against the design scenario, hydraulic sealing, redundant access.

Physical security and continuity

Risks considered

Unauthorised access, interruption of critical functions, prolonged occupancy.

System response

Access control, compartmentalisation, operating protocols, resource and occupancy management.

Actual protection depends on the scenario assumed at design stage. No configuration covers all scenarios simultaneously with the same margin: requirements are defined and declared case by case.

Scientific competence

Engineering and nuclear physics, not just construction.

Most solutions on the market originate from predominantly construction, plant-engineering or structural competences. ATOMIK BOX instead originates from the integration of engineering and nuclear physics.

The project draws on the scientific support of top-level competences in nuclear safety and fusion, with the possibility of developing the scientific activities together with professionals of the highest calibre from the sector.

Roles, validation activities and certification paths will be defined according to the specific project.

Radiation protection

Scenario definition, dose estimation, design criteria and safety margins.

Radiation transport

Modelling of photon and neutron behaviour through real materials and geometries.

Systems engineering

Structure, plants, sensors, automation and software designed as a single system.

Technical validation

Model verification, sensitivity analysis and documentation of estimated performance.

Multilayer shielding

Not more concrete. Better physics.

Thickness is only one variable. Attenuation depends on the type of radiation, the materials crossed, the sequence of layers and the streaming paths left open by doors, joints and service penetrations.

Attenuation laboratory
Monolithic concrete600 mm · C40
Dense + hydrogenous multilayerFe + HDPE + C40
Scenario-optimised multilayermultilayer · scenario-driven
Attenuation factor (illustrative)120×

Select a configuration: particles cross the layers and are progressively absorbed.

Material, thickness and layer sequence depend on the radiological scenario considered. The values shown are purely demonstrative.

Air, sealing and NBC/CBRN filtration

Shielding stops radiation. Air is what you bring inside.

Most contamination enters with the air and with people. That is why the filtration chain, overpressure and entry procedures are an integral part of the design, not an accessory.

01

Pre-filtration

Removal of coarse particulate and dust, protecting the downstream stages.

02

High-efficiency filtration

Retention of aerosols and fine particulate, including carriers of radioactive contamination.

03

Impregnated activated carbon

Adsorption of vapours and gases, sized according to the expected agents.

04

Controlled overpressure

Air flows out, not in: infiltration through joints and penetrations is actively counteracted.

05

Transition zones

Entrance, undressing, decontamination and clean area, separated and governed by guided procedures.

06

Redundancy and degraded mode

Emergency manual ventilation, spare filters, operation on reduced power.

07

Filter monitoring

Saturation, pressure drop and operating hours measured and historised by the software.

08

Water, power, supplies

Reserves sized on the duration of isolation, with dynamic estimation of residual autonomy.

Monte Carlo and multiphysics simulation

Design based on verifiable scenarios

Every shelter starts from a scenario: source, distance, ground, site geometry, duration of isolation, number of occupants, vulnerability of the plants.

Outside Shielding Inside Sampled histories: 0k
Dose map — shelter section (illustrative simulation)

Reference scenarios

  • Nuclear fallout
  • Environmental contamination
  • Gamma exposure
  • Neutron component
  • Industrial or radiological events
  • Expected duration of isolation

What the simulations are for

  • Model radiation transport
  • Evaluate attenuation and estimate dose
  • Compare materials and configurations
  • Identify weak zones
  • Assess doors, filters, air intakes and entrances
  • Optimise performance, space, weight and cost
Quantifying protection

Protection must be measured, not narrated.

The goal of the project is to provide understandable, documentable technical indicators that a qualified third party can verify.

ATOMIK BOX · PROTECTION REPORT Illustrative data
Attenuation factor1 450×
Estimated internal dose0.08 µSv/h
Cumulative dose (30 d)0.06 mSv
Design occupancy30 gg
Margin on criteria×4.2
Air/power/water autonomy30/28/34 gg

Estimate of protective performance

Probabilistic evaluation of scenarios

Reduction of expected exposure

Limit conditions and degraded operation

No system can guarantee absolute protection. The values shown are demonstrative and depend on the scenario, the site and the configuration adopted.

Radiometric monitoring

Know what happens outside. Verify what happens inside.

A distributed sensor network returns the time evolution of critical parameters, inside and outside the shelter, and distinguishes — as far as technically possible — event type and risk level.

LIVE MONITORING · NOMINAL Illustrative data
External rate0.12 µSv/h
Internal rate0.08 µSv/h
Overpressure52 Pa
Internal CO₂640 ppm
Filter saturation8 %
Energy reserve97 %
External radiation
Internal radiation
Entrances and decontamination zones
Filter status
Environmental dosimetry
Surface contamination
Air quality and particulate
Differential pressure
Temperature and humidity
Carbon dioxide
Water quality and reserves
Energy level
Management software

A system that helps you decide when deciding is hard.

Not an infallible system: a decision-support platform that collects data, interprets it, shows trends and proposes actions.

Demonstration interface · SHELTER MAP
AIRLOCK
DECON
LIVING
TECH
STORE
Event timeline
Recommended actions
  • Priority 1Maintain compartmentalisation of the entrance airlock
  • Priority 1Check overpressure and filter status
  • Priority 2Reduce non-essential electrical consumption
  • Priority 3No exit planned in the coming hours
Automated protocols

Under stress, memory is not a safety system.

In an emergency, procedures are forgotten, data is misread, people act on impulse and expose themselves needlessly. The system guides operations step by step.

Entering the shelter

Compartmentalisation

Decontamination and clothing management

Filtration start-up

Supply control

Alarm management

Health procedures

Waste management

Internal communications

Exit assessment

The system may integrate health protocols approved by the competent authorities, providing instructions only in the cases and in the manner foreseen by the emergency plan and by medical supervision.

Occupancy and wellbeing

Surviving also means being able to stay.

Prolonged occupancy of a closed environment produces stress, loss of time perception, sleep disorders, conflict, isolation and reduced decision-making capacity. These are design variables, not details.

Internal circadian cycle — simulationDay
ATOMIK BOX also integrates a proprietary solution dedicated to the perceptual and psychological management of prolonged occupancy, with particular attention to families and children.
Integrated architecture

A shelter is not a product. It is a technical ecosystem.

Sixteen coordinated subsystems. Select a block to see its role.

Structure

Structural sizing on static, dynamic and accidental site loads.

Design method

Every ATOMIK BOX starts from a scenario, not from a catalogue.

Standardised configurations may be developed, but actual performance will always depend on the site, the objectives and the reference scenario.

01Site analysis
02Definition of risk scenarios
03Protection requirements
04Structural and radiological modelling
05Monte Carlo and multiphysics simulation
06Shielding optimisation
07Plant design
08Monitoring network
09Software development
10Validation
11Construction
12Commissioning and training
13Maintenance and updating
Reference configurations

Starting points, not catalogues.

The configurations below are indicative design references. Final dimensions, autonomy and performance always derive from the scenario, the site and the agreed requirements.

ConfigurationOccupantsScopeDesign focus
Family4 – 8Private residence, villaCompactness, family occupancy, ease of use.
Residence10 – 30Apartment building, collective shelterFlow management, common spaces, shared protocols.
Corporate20 – 60Company, headquarters, laboratoryOperational continuity, communications, physical security.
Criticalon requestCritical infrastructure, data centres, institutionsRedundancy, declared requirements, documented validation.

Indicative values for illustrative purposes. They do not constitute an offer or a guaranteed performance.

Also on existing structures.

Building from scratch is not always necessary. Basements, existing shelters and technical volumes can be assessed and, where sensible, upgraded: survey of the as-is condition, verification of current performance, integration of shielding, sealing, filtration, sensors and software.

As-is survey
Estimate of current performance
Targeted upgrade measures
Integration of monitoring and software
Applications

Where a system makes sense, not a room.

Private residences and villas
Apartment buildings and collective shelters
Companies and corporate headquarters
Data centres
Critical infrastructure
Command and control centres
Healthcare facilities
Institutional premises and embassies
Industrial plants and laboratories
Research centres and strategic facilities
Why ATOMIK BOX

We do not sell cubic metres of concrete. We design performance.

01

Advanced scientific competences

Integration of systems engineering, radiation protection and nuclear physics.

02

Optimised multilayer shielding

Materials and sequences chosen according to the radiation to be attenuated.

03

Monte Carlo simulation

The behaviour of the shelter is verified before it is built.

04

Quantitatively evaluated protection

Documentable technical indicators, not commercial promises.

05

Continuous radiometric monitoring

Inside and outside, with historisation and trend analysis.

06

Decision support and occupancy management

The software accompanies occupants from entry to exit.

Frequently asked questions

The questions we are actually asked.

How thick must a wall be to protect?

There is no universal thickness. The attenuation required depends on the scenario (type and energy of radiation, distance, duration) and on the dose criteria adopted. Thickness is an output of the design, not an input: it is determined through simulation and verified against a declared objective.

How long must one stay inside?

It depends on the event and on what is actually measured outside. In many fallout scenarios the first hours and days are the most critical, but the decision to exit cannot rest on a general rule: ATOMIK BOX measures, historises and supports the assessment of the most appropriate moment, in line with the guidance of the competent authorities.

How is this different from a traditional bunker?

A traditional bunker is a structure. ATOMIK BOX is a system: simulation-optimised shielding, internal and external radiometric monitoring, automated protocols, dynamic resource management and decision-support software. The main difference is that performance is estimated and documented, not merely asserted.

Is a permit required? Which authorisations?

Building, planning and plant-engineering aspects follow the regulations of the site. Permits are assessed at the start of the project, together with local constraints and ground characteristics.

How much does it cost?

Cost depends on the protection scenario, the site, the number of occupants, the required autonomy and the level of redundancy. That is why the process starts with a preliminary technical assessment: without a scenario, any figure would be arbitrary.

How long does construction take?

Duration depends on the configuration and the site. Analysis, simulation and design always precede construction, and their duration is agreed together with the protection objectives.

Can I upgrade an existing basement?

Often yes, and it is the most efficient route. It starts from a survey of the as-is condition and an estimate of current performance; from there we evaluate which measures (shielding, sealing, filtration, monitoring, software) deliver the greatest benefit per unit of cost.

How is confidentiality ensured?

Information about the site and the project is treated as confidential. An NDA can be signed before any exchange of documentation: the contact form includes a dedicated option.

Can the system replace guidance from the authorities?

No. The software is a decision-support tool. The guidance of the competent authorities and, where applicable, medical supervision remain the reference: the system integrates and operationalises them, it does not replace them.

Who carries out the scientific activities?

The project draws on the scientific support of top-level competences in nuclear safety and fusion. Roles, validation activities and any certification paths are defined according to the specific project.

Preliminary assessment

Real safety begins with a correct definition of risk.

Every ATOMIK BOX project starts from the analysis of the site, the scenarios and the protection objectives. Contact us for an initial confidential technical assessment.