EQUILIBRIUM Materials Science and Transport

1. General

The transport system of the Russian Federation is one of the basic infrastructure systems of the state. Its effectiveness directly depends not only on the organization of transportation, digital management and network development, but also on the quality of materials from which vehicles, roads, bridges, tunnels, rail infrastructure, power plants, storage and energy transmission nodes are created.

Within the framework of the system "EQUILIBRIUM" material science is considered as one of the key technological contours of transport. It is proposed to move from the separate development of transport infrastructure and materials engineering developments to a single model in which the requirements of transport form an order for materials, and new materials change the economy, resource, security and architecture of transport.

2. Strategic objective

Formation of the national contour "Material Science - Transport", which provides an accelerated introduction of domestic materials, composites, coatings, alloys, ceramics, ultra-pure substances and functional materials into the civil, industrial and infrastructure transport system.

• reducing dependence on critical imports of materials and components;
• increase of transport infrastructure and rolling stock;
• reduction of construction weight, energy consumption and life cycle cost;
• improving safety and resistance to extreme climatic and operational loads;
• formation of the domestic technological base of dual-use materials, infrastructure and production.

3. Materials Science as the Basis of Transport Sovereignty

Modern transport is increasingly a material-dependent industry. The competitiveness of aviation, rail transport, automotive, shipbuilding, energy transport and infrastructure construction is determined not only by the quality of the design, but also by the availability of materials with specified physical and chemical, mechanical, thermal, electrical and resource characteristics.

3.1. Priority classes of materials

• high strength and corrosion resistant steels;
• aluminum and magnesium alloys;
• titanium alloys and special heat-resistant materials;
• polymeric and carbon composites;
• ceramic and metal ceramic materials;
• functional coatings and systems of protection against wear and corrosion;
• nanostructured materials and ultrapure starting materials;
• materials for battery systems, electric transport and power electronics;
• materials for hydrogen infrastructure and gas storage;
• geomaterials and technologies of soil stabilization for transport construction.

4. Main transport directions

4.1. Road transport

Light body structures, high-resource parts, brake and friction materials, composites, anti-corrosion coatings, materials for batteries and electric motors.

4.2. Rail transport

New generation rail steels, wear-resistant wheel pairs, composite materials, coatings, materials for bridges, contact networks and high-speed infrastructure elements.

4.3. Air transport

High-strength aluminum and titanium alloys, composites, heat-resistant systems, ceramics, coatings, lightweight constructions and materials for electric and hybrid power plants.

4.4. Maritime and river transport

Corrosion-resistant materials, ship steels, composites, coatings, materials for Arctic operation, energy systems and port infrastructure.

4.5. City Electric Transport

Materials for batteries, power electronics, contact networks, light bodies, high-resource wheel nodes and charging infrastructure.

4.6. Pipeline and special transport

High-strength pipes, anti-corrosion coatings, materials for high pressures, low temperatures, chemically active environments and integrity monitoring.

5. Architecture "EQUILIBRIUM Materials Science — Transport"

The proposed architecture is built as a single cycle: the need for transport → Terms of Reference → scientific development → Experienced material → Validation → Certification → Pilot application → Industrial production → operational monitoring → Re-improvement.

6. Key technological projects

• The Center for Transport Materials Science is a single platform for coordinating R&D, testing and implementation.
• Register of critical transport materials and technologies.
• National Library of Digital Passport Materials.
• Digital twin life cycle of transport structures.
• The program of import-independent materials for transport.
• Pilot sites for full-scale testing of materials in real climatic conditions.
• Industrial consortia on aluminum, composites, ceramics, battery materials and protective coatings.
• System of traceability of origin, quality and resource of materials.

7. Example of a priority direction: ultra-pure and nanostructured aluminooxide products

A separate promising direction is the use of ultra-pure and nanostructured aluminum oxide products in transport engineering, electrical engineering, power electronics, protective coatings, ceramic assemblies, sensors and components operating at elevated temperatures and loads. Industrial implementation decisions require technological validation for specific transport applications, confirmation of parameters, resource, life cycle cost and readiness for serial production.

8. Soil stabilization technologies and transport infrastructure

Stabilization of soils can be considered as an independent direction of transport material science. With confirmed characteristics, such technologies can be used in the construction and reconstruction of highways, railway bases, temporary infrastructure, industrial sites and facilities in difficult geological conditions.

• increase the bearing capacity of the base;
• reducing the volume of soil replacement and inert materials supply;
• reduction of construction time;
• increasing resistance to seasonal and climatic deformations;
• possible reduction of the carbon intensity of construction when confirmed by life cycle calculations.

9. Dual-use transport

Within the framework of the state transport policy, materials and technologies should also be evaluated according to the criteria of sustainability, maintainability, resource independence and the possibility of rapid restoration of infrastructure. We are talking about the creation of a civil industrial base capable of maintaining the performance of the transport system in emergency situations, technological limitations and increased load.

At the same time, specific defense applications, access modes and special requirements should be formed only by authorized state customers within the framework of current legislation and established procedures.

10. Economic model

• state technological order for critical materials;
• long-term off-take contracts of transport corporations;
• PPP for testing and production infrastructure;
• industrial consortia of material manufacturers and transport companies;
• measures to support certification, localization and scaling;
• Evaluate efficiency at full life cycle cost, not just at the purchase price.

11. System of indicators

• share of domestic materials in critical transport segments;
• reduction of mass of transport structures;
• increase in interrepair resource;
• reduction of accident rate and material failures;
• reducing the cost of the life cycle;
• energy efficiency and reduction of fuel/energy consumption;
• period from laboratory development to industrial implementation;
• volume of serial production of new materials;
• export potential of materials and transport technologies.

12. Proposed pilot

As a pilot, it is proposed to form an inter-industry project that unites a transport company or an infrastructure customer, a material developer, a manufacturer, a test center and a digital contour "EQUILIBRIUM".

• choose 3–5 materials science solutions with high readiness;
• identify specific transport products or infrastructure facilities;
• to conduct comparative tests with serial analogues;
• calculate resource, life cycle cost and economic effect;
• create digital passports and validation protocols;
• Based on the results of the pilot, make a decision on serial implementation.

13. State implementation mechanism

To implement the initiative, it is proposed to form an interagency and intersectoral coordination circuit with the participation of relevant federal executive authorities, transport companies, scientific organizations, material manufacturers, test and certification centers.

• approval of the list of critical materials and technologies;
• development of a road map for R&D and implementation;
• creation of a unified system of testing and validation;
• support of pilot industrial production;
• inclusion of confirmed solutions in procurement and industry standards;
• scaling of successful solutions to the transport system of the Russian Federation.

14. Output expected

The link "Material Science - Transport" should become one of the mechanisms of technological sovereignty of Russia. Its result is not a separate material or transport project, but a reproducible system for creating, testing, implementing and scaling technologies.

"EQUILIBRIUM" in this model performs the function of a system architecture: connects scientific order, technology, production capacity, transport operation, life cycle data, economics and public administration into a single managed circuit.

15. Proposal

It is proposed to consider the creation of a pilot federal contour "EQUILIBRIUM: Materials Science and Transport" with the subsequent formation of a national program for the accelerated introduction of new materials and unified technologies into the transport system of the Russian Federation.