01 · Engineering consultancies
When routine design workflows reach their limit.
Independent nonlinear, dynamic, thermal, contact, damage, and local-detail assessment for engineering offices that need specialist finite-element capability on demand.
Advanced finite element simulation · Extreme loads · Structural integrity
Advanced simulation for complex structures and industrial systems.
From complex physics to defensible engineering decisions.
Axis Advanced Engineering supports engineering consultancies, industrial and EPC teams, asset owners, and R&D organizations with nonlinear finite element simulation, extreme-load assessment, structural-integrity analysis, thermal and cryogenic simulation, and technical reporting built for review.
Who
Engineering consultancies · industrial/EPC teams · asset owners · R&D
Problems
Nonlinear response · extreme loads · local failure · structural integrity
Methods
Implicit/explicit FEA · coupled analysis · CEL/ALE · XFEM · user subroutines
Output
Verified model · engineering interpretation · traceable technical report
Who we support
Specialist simulation capability for teams with difficult engineering questions.
Axis is designed as an external technical partner — not a general design office and not a software-training brand.
02 · Industrial / EPC / asset teams
When industrial assets need deeper numerical evidence.
Simulation-based assessment for tanks, vessels, supports, piping-related components, offshore systems, blast/VCE exposure, thermal loading, and structural-integrity decisions.
03 · R&D organizations
When advanced numerical methods become part of the challenge.
Advanced modelling, custom constitutive behaviour, parametric studies, model verification, post-processing, and technical documentation for demanding R&D programs.
Problems we solve
Clients bring the engineering question. We determine the analysis route.
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Where is failure likely to initiate?
Resolve local stress, strain, damage, instability, contact, or fracture-driving regions that global checks can miss.
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Will this detail survive the actual load path?
Assess supports, connections, discontinuities, interfaces, local components, and assemblies under realistic nonlinear behaviour.
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What changes under blast, VCE, or impact?
Translate an impulsive load scenario into deformation, damage progression, vulnerable regions, and practical engineering consequences.
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Does the proposed strengthening solution work?
Compare baseline and retrofit configurations using consistent assumptions, response metrics, and clearly defined performance criteria.
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Are thermal gradients or restraint controlling the response?
Model transient or coupled thermal loading where temperature history, local cooling, and restraint drive structural demand.
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Can the numerical evidence support a technical decision?
Build a traceable chain from assumptions and verification through results, limitations, and final engineering interpretation.
Core capabilities
Advanced simulation defined by the engineering problem — not by one software brand.
01
Advanced Nonlinear FEA
Contact, plasticity, large deformation, local buckling, instability, damage, assemblies, and complex load transfer.
Explore capability →02
Blast, VCE & Impact Engineering
Impulsive loading, pressure-wave response, structural vulnerability, damage progression, and strengthening comparison.
Explore capability →03
Industrial & Offshore Structural Integrity
Tanks, vessels, supports, piping-related components, local discontinuities, offshore systems, and integrity-critical details.
Explore capability →04
Thermal, Cryogenic & Coupled Simulation
Transient heat transfer, thermal shock, thermal stress, cryogenic exposure, mapped fields, and thermo-mechanical response.
Explore capability →05
Bridge, Infrastructure & Strengthening
Masonry and bridge systems, retrofit concepts, CFRP, blast/impact vulnerability, local damage, and resilience assessment.
Explore capability →06
Engineering Simulation & Technical Reporting
Independent model review, verification, parametric studies, post-processing, technical figures, and defensible reporting.
Explore capability →Why Axis
Engineering decisions, not software operation.
Physics first
Method follows the problem.
The solver, element formulation, constitutive model, contact strategy, and level of fidelity are selected around the governing physics and required decision.
Verification
Check before interpretation.
Units, load paths, boundary conditions, mesh quality, solver behaviour, energy response, and sensitivity are reviewed before results are treated as evidence.
Senior advisory
Experienced technical direction.
Specialist simulation execution is supported by senior technical advisory spanning structural engineering, blast, offshore systems, and integrity assessment.
Reporting
Results that another engineer can review.
Assumptions, modelling choices, limitations, critical response, and engineering meaning are documented — not hidden behind contour plots.
Selected engineering studies
Technical evidence behind the capability.
Peer-reviewed research case
CFRP-strengthened masonry arch bridge under close-range blast
Coupled blast-response modelling used to compare structural damage and strengthening performance under severe impulsive loading.
View engineering case →
Peer-reviewed research case
VCE-driven LNG vessel–pipe–flange vulnerability
Nonlinear assessment linking explosion-driven local deformation to vulnerable locations in a connected industrial vessel, piping, flange, and support system.
View engineering case →
Research development case
Cryogenic thermal loading in a steel LNG tank
Transient thermal–structural assessment showing how cooling history, transition zones, and restraint govern stress localization.
View engineering case →
Conference research case
XFEM leak-tightness assessment of concrete containment
Sequential thermal–mechanical–fracture modelling for pre-cracked containment under localized cryogenic thermal shock.
View engineering case →Ways to engage
Start with a bounded question. Scale only when the problem requires it.
01
Independent Model Review
Review an existing model, assumptions, loads, materials, contacts, mesh, solver behaviour, and result interpretation.
02
Focused Simulation Study
A clearly bounded engineering question with defined inputs, outputs, and a concise technical deliverable.
03
Advanced Engineering Assessment
Complex nonlinear, extreme-load, thermal, or integrity simulation with verification, sensitivity, and structured reporting.
04
Ongoing Simulation Partner
External specialist capability for engineering teams that need recurring advanced analysis without permanent in-house overhead.
Engineering workflow
From engineering question to reviewable technical evidence.
01
Define
Clarify the decision, failure concern, available data, confidentiality, and required deliverable.
02
Review
Assess geometry, loads, materials, boundaries, uncertainty, and whether advanced simulation is justified.
03
Build
Select the numerical method and build the model around the governing physics.
04
Verify
Check numerical stability, load paths, mesh, energy, convergence, and sensitivity as appropriate.
05
Report
Interpret critical response and document assumptions, limitations, conclusions, and next steps.
Technical intake
Send the engineering question, not just the geometry.
You do not need to know which solver or modelling method is required. Describe the structure, loading scenario, available data, and the decision you need to make.