About SimuTek
Engineering Excellence Since 2011
Simutek has been delivering high-quality engineering solutions since 2011. We specialize in mechanical design, advanced engineering calculations, and engineering software sales, offering tailored project and consultancy services to meet the needs of various industries.
With a strong track record in defense, automotive, white goods, construction, and turbomachinery, we provide value-added solutions backed by deep expertise in structural mechanics and computational fluid dynamics (CFD).
We are also highly experienced in the energy and process industries, offering engineering services for critical systems such as gas ducts, boilers, and pressure vessels. Our designs and analyses are performed in compliance with globally recognized standards such as ASME, EN 13445, and Eurocode, ensuring the highest levels of safety, efficiency, and regulatory compliance—particularly in power generation, petrochemical, and heavy industrial applications.
Let’s build the future of engineering together.
Our Last Projects
Project Title:
Gas Treatment, Heat Recovery and Ducting System Design
Description:
A comprehensive engineering study was carried out for an industrial facility operating under high temperatures, including gas ducts, filtration units, heat exchangers, and waste heat recovery systems.
Technical Approach:
All system components were analyzed using Finite Element Analysis (FEA) in full compliance with Eurocode standards. Structural behavior under thermal expansion, vibration, and internal pressure was thoroughly evaluated—especially for duct transitions and connection points.
Our Contribution:
Thermomechanical analysis and structural optimization
Equipment integration and safety verification
Engineering design focused on performance and durability
Project Summary:
This project evaluated pedestrian wind comfort as part of an outdoor space development in Bodrum Akyarlar.
Our Approach:
A detailed wind comfort map was created using CFD simulations, incorporating local topography and built environment. Seasonal wind conditions were modeled.
Outcomes:
Identification of zones with reduced comfort
Engineering data to support planning decisions
Evaluation based on international comfort standards
Project Scope:
Structural modification and reinforcement of A and B Deck WEB Frames on board the M/V ORCHID to ensure full compliance with the Carriage of Livestock by Sea Regulations 2016 (Irish Maritime Transport Regulations).
Approach:
A detailed structural assessment and finite element analysis (FEA) were carried out to evaluate the load-bearing capacity of the existing frame structure under livestock-specific dynamic loads. Based on findings, localized reinforcements and geometry optimizations were designed to meet regulatory strength and safety criteria.
Deliverables:
Engineering calculations and FEA simulations
Detailed modification drawings
Compliance documentation as per Irish regulations
Project Summary:
This report presents the findings regarding the stress and deformation effects induced by the applied weights on the LARS (Launch and Recovery System) platform installed on the Sancar vessel.
Technical Approach:
The Finite Element Method (FEA) was employed for numerical simulations, considering the weight distribution and platform geometry. The structural integrity was evaluated in accordance with relevant safety and performance criteria.
Outcomes:
Stress and deformation contour results
Identification of critical zones
Structural safety assessment
Project Summary:
This report presents the findings of a Finite Element Analysis (FEA) and fatigue assessment conducted for the rotor region of the ISKEN Preheater project.
Technical Approach:
The rotor area was modeled under defined loading conditions to identify high-stress zones and potential fatigue initiation points. Material properties and lifecycle data were used to evaluate fatigue safety.
Outcomes:
Stress distribution and fatigue life maps
Identification of critical zones
Design optimization and safety recommendations
The ship model was modified by extending its length to enhance its hydrodynamic performance. The main objective was to compare the resistance characteristics of the vessel in the loaded condition before the modification (original) and after the modification (extended). The analysis focused on quantifying the resistance differences between both configurations, enabling an estimation of the power required to maintain a specified service speed. Furthermore, the results were used to assess the impact of the modification on fuel consumption, providing insights into potential improvements in operational efficiency and energy savings.
Project Title:
Blast Analysis of a Protective Structure Using LS-DYNA
Description:
A structural analysis was performed to evaluate the response of a protective structure subjected to blast loading. The study focused on the structure’s deformation, stress distribution, and potential damage under the defined blast scenario.
Technical Approach:
A finite element model was developed and analyzed using LS-DYNA. The blast load was applied as a time-dependent pressure, and the structure’s nonlinear dynamic response was evaluated. Deformation and stress contours were reviewed to identify critical areas.
Our Contribution:
Finite element model development for explicit dynamic analysis
Blast load definition and LS-DYNA simulation
Evaluation of structural deformation, stresses, and potential damage
Identification of critical regions and preparation of analysis results
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