Advanced Engineering | Infrastructures | Agents & Partners

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Advanced Engineering | Infrastructures | Agents & Partners

Transcript of Advanced Engineering | Infrastructures | Agents & Partners

Advanced Engineering | Infrastructures | Agents & Partners

2 SDEA Solutions is a technical

consultancy company with

expertise providing first class

design & engineering services.

SDEA counts with an excellent

track record and reputation in

the market delivering solutions

to a range of industries such as,

Oil&Gas, Maritime, Offshore,

Transportation and energy.

Our three main action areas are

Advanced Engineering

Calculations, Infrastructures

designs mainly for Railway

electrifications and BIM for lineal

infrastructures, and acting as

Sales representative for

RappMarine and STADT, both

Norwegian companies.

Our Engineers form a high skilled

team that share a passion for

working on international

projects, technical challenges

and using the most advanced

Engineering resources to help

our clients reach their goals,

delivering high performance

products that are safe, reliable

and cost-effective.

Three Locations

Vigo - Galicia (Spain)

Haro – La Rioja (Spain)

Nottingham (UK)

Advanced Engineering | Infrastructures | Agents & Partners

Team profile

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SDEA Solutions – About us

Technical consultancy company specializing in providing engineering solutions

Offering innovative and simulation driven analysis to increasingly complex and multi-

physics engineering challenges faced by our clients

Advanced Engineering

– Finite Element Analysis (FEA)

– Computational Fluid Dynamics (CFD)

– Thermal – Mechanical & Process Engineering

– Heavy lifting tools & custom made solutions

– Extensive background on International standards

Software

— FEA: Ansys Mechanical, Nastran, Abaqus,

— CFD: Fluent, CFX, STAR CD, Open Foam

— Thermal: HTRI, Own development datasheets

— Structural Analysis: PV Elite, Dlubal, Cype, Robot

— CAD: Microstation, Autodad, SolidWorks, Tekla

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FEA Capabilities

• Linear-Elastic stress analysis• Thermo-mechanical analysis• Non-linear plastic collapse analysis• Fatigue and fracture mechanics• Seismic and Vibration Analysis• ASME, API, PD and UNE analysis

FEA: Core Technical Capabilities

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Design and FEA calculation for marine equipments – SWL 600 Tn

High order elements combining

HEX20 and TET10

Technical Capabilities: FEA

Fatigue damage for different

assumed loading cycles

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3000 T Lifting appliances testing tool [upgrade to 6000T]

Lifting Beam: SWL 300 / 500 Tn

Services: Tooling design

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Elastic stress analysis

Membrane and membrane + bending stress

contours, 6.3 mm tube thickness

Max. Stress inner wall 131 MPa

Max. Stress outer wall between fins

134.7 MPa

Local alignment bar model

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Elastic stress analysis

Temperature results

Temperature difference between interior and exterior

surface for the whole thermal cycle.

The maximum temperature difference occurs 2 times per

cycle so number of cycles are doubled

Tube-tubesheet weld thermal shocking failure

Thermal shocking

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Compact heat exchangers

Operational thermal cycle fatigue analysis including cfd to get the operational

temperature field and FEA to obtain the related thermal stress field

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Microturbines-Recuperator design

Thermal CFD local models to simulate fin heat

exchangeGeometry optimization

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Oil to Salt heat exchanger

OIL TO SALT HEAT EXCHANGER FATIGUE UNDER ASME VIII DIV 2 REQUIREMENTS FOR

SOLAR POWER PLANT

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Process Engineering Capabilities

Thermo-hydraulic and mechanical design of heat exchangers:• Shell and tubes, Air-cooled, Cross-flow (recuperators/economizers), Furnaces and boilers

Design of process equipment (unit operations):• Distillation, Absorption / Stripping, Adsorption, Multiphase separators

Process engineering of chemical and energy plants:• Conceptual and basic engineering. Feasibility studies• Detailed engineering of oil refining plants• Detailed engineering of natural gas treatment plants

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Equipment design

DISTILLATION:• Tray-columns (perforated trays, valves and bubble caps)• Packed-columns (random packing: rings)• Packed-columns (structured packing)

ABSORPTION/STRIPPING:• Tray-columns (perforated trays, valves and bubble caps)• Packed-columns (random packing: rings)• Packed-columns (structured packing)

MULTIPHASE SEPARATORS:• Gas / vapour vs. solid (cyclones, bag filters)• Gas / vapour vs. liquid (decanters, demisters)• Liquid vs. solid (clarifiers, hydrocyclones)• Light liquid vs. heavy liquid (decanters)• Gas / vapour vs. light liquid vs. heavy liquid (3 phases)

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Thermal Engineering

SHELL AND TUBES - TEMA/API 660/HEI:• Oil-molten salts equipment for thermal energy storage• Steam generation systems• Thermosyphon reboilers (vertical, horizontal) • Feedwater heaters (FWH)• Steam surface condensers• Bayonet vaporizers, hairpin, doble pipe, tank coils

AIR-COOLED - API 661:• Process coolers / condensers• Steam condensers for thermal power plants (A-frame)

FURNACES - API 560:• Process direct fired heaters• Firetube and watertube boilers

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Thermal fatigue – Oil and Gas

Thermal fatigue project following ASME VIII div 2 requirements for oil and gas

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CFD: Core Technical Capabilities

Fluid-dynamics

• Aerodynamic/hydrodynamic optimisation

• Flow assurance oil & gas

• Turbulence modelling

• Discharge coefficient calculations

• Particle transport and Erosion analysis

• Conjugate Heat Transfer modelling

• Flow-induced vibration and turbulence noise

• Joule-Thompson cooling

Choke Sand Erosion Contours Pipework Sand Erosion Fatigue Analysis

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CFD: Flash Tank

Flow path lines here illustrate the general flow path followed by the

fluid from the inlets up to the outlets.

As expected, a vertical flow is initially generated in the tank and the

entrance to the outlet vent, however this effect diminishes by the

time the flow reaches the outlet.

Flow path lines inside a flash

tank and discharge zone

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CFD: Turbine Condenser

Mesh detail for the half symmetry model Pressure vs. Velocity relation

Velocity along vertical lines Velocity contours

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Wind effects on masts

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Piping example analysis

Erosion analysis of a subsea flow meter Flow induced vibration (fiv)

• Assessing a cone flowmeter to determine likelihood of fatigue

due to FIV

• CFD used to simulate the turbulent flow structures and fluid

forcing signal

• Coupled with an FEA model of the structure to assess

structural response

Studies using coupled cfd/fea

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HVAC for vehicles

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CFD: Coaches Crosswind

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Iso-surfaces of volume-fraction showing the water-

free surface flow velocity through a spillway

Relevant Project

Using numerical simulations to

characterise likely failure scenarios

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Civil & CAD design, Point Clouds

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DNV 2.22 Lifiting appliances

DNV RP-C203 – Fatigue design of offshore steel

strectures

DNV RP-F112 – Design of duplex stainless steel subsea

equipment

exposed to cathodic protection

DNV RP-F113 Pipeline subsea repair

DNV RP-F-101 – Corroed pipelines

DNV GL-RP0034 – Steel Forging for subsea application

DNV-OS-C101 – Submarine pipeline systems

DNV-OS-F101 – Corroded pipelines

DNV 2.7-3 – offshore containers

DNV RP C208 – Structural capacity by non-linear analysis

NACE – MR -0175 General Principles for selections

of cracking resistance materials

FEM 1001 - RULES FOR THE DESIGN OF HOISTING

APPLIANCES

BV-NI-184 Lifting appliances

ASME Div2 Sec VIII Rules for construction of pressure

vessels

ASME B16.5 – Pipe flanges and flanget fittings

ASME B31.3 & B31.9 – Piping code sections

API- RP-2A Recomended Practice for planning

designing and constructed fixed offshore platform

API 6A - Specification for Wellhead and Christmas Tree

Equipment

PD-5500 - Specification for unfired fusion welded

pressure vessels

NORSOK M-630 – Material data for piping

Standards & Rules

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Clients & Sectors

InfrastructuresAdvanced EngineeringAgents & Partners

Spain Office

Gran Vía, 161 | Vigo

+34 653 942 425

[email protected]

UK Office

Kegworth, Derby

+44 (0) 743 585 9526

[email protected]

www.sdeasolutions.com

We look forward to hearing from you!