Modular Design Engineering

Faster Construction. Safer Installation. Smarter Engineering.

Modular Design Engineering

Modular Design Engineering Services

Design modules for fabrication, transport and installation.

Develop plant modules around fabrication, transport, installation and operation from the outset. Teckniv coordinates piping, structures, equipment and electrical interfaces within modular arrangements. The design addresses the work that can be completed off site and the connections that must be made at the receiving facility.

Who we support

EPC contractors, module fabricators and asset owners considering offsite fabrication where site access, installation sequence or repeatable plant packages influence project delivery.

Discuss your project
Modular Design Engineering Services illustration
Modular Design Engineering Services • India & international projects

01 / Engineering capabilities

Capabilities shaped around your project.

The scope is agreed around the decisions, interfaces and engineering outputs your team needs. These work areas can be combined into a defined package.

Modularization strategy

Review module boundaries, plot constraints and fabrication opportunities. Consider how the proposed arrangement affects transport size, site installation and plant interfaces.

Coordinated module design

Develop 3D models, framing and equipment arrangements. Review maintenance access, piping routes and electrical integration within the available space.

Handling and interfaces

Assess lifting, transport and load-out requirements within the agreed scope. Coordinate interface dimensions, connections and installation sequence with the project team.

Fabrication and site support

Prepare module drawings and quantities, support design queries and incorporate approved changes. Update records to reflect the agreed final arrangement.

02 / Your engineering package

Clear deliverables. Ready for the next team.

The deliverable list is agreed at the start. Each issue identifies its purpose, revision and outstanding inputs for the next project stage.

  • Modularization concept and interface definition
  • Coordinated 3D module models
  • Structural and equipment arrangements
  • Lifting and transport design inputs
  • Fabrication drawings and material quantities
  • Site-interface and as-built documentation

03 / How we work

A clear route from requirement to handover.

We establish the design basis first, then develop and review the package with your project team.

  1. 01

    Agree the requirement

    Assess modularization feasibility and define module limits.

  2. 02

    Develop the package

    Develop the layout and multidisciplinary model.

  3. 03

    Review & coordinate

    Review fabrication, lifting, transport and installation interfaces.

  4. 04

    Issue & hand over

    Issue coordinated drawings and support agreed execution changes.

04 / The technical context

Aligned with your facility and requirements.

The equipment duty, project location and client standards determine the methods, platforms and acceptance criteria.

Industries & applications

Process and utility modules, equipment packages and industrial plant expansions. The approach is particularly relevant where transport, lifting and tie-in interfaces must be resolved before fabrication.

Software & digital delivery

Coordinated 3D models, fabrication drawings and structural or lifting calculations support module development. Model exchange and drawing formats are aligned with the fabrication yard, transport team and site engineering requirements.

Standards & design basis

Applicable piping, structural, equipment and electrical requirements are coordinated with the client’s transport and lifting criteria. Operating, temporary, handling and installation conditions are considered separately where required by the module scope.

05 / Before you begin

Frequently asked questions

Practical answers to common scope and coordination questions.

Does modularization suit every project?
The decision depends on site conditions, logistics, fabrication access and the system interfaces. These factors should be assessed before a modular arrangement is selected.
How is a module different from a skid?
A skid usually forms a compact equipment package on a common base. A module can incorporate a larger integrated section of the plant with multiple systems and interfaces.
What determines the size of a module?
Process arrangement is only one factor. Transport limits, lifting capacity, fabrication capability, site access and installation sequence also influence module boundaries and dimensions.
How are connections between modules controlled?
Battery limits, tie-in points, dimensional references and connection responsibilities are defined in the interface documents. Model and drawing reviews check that adjacent packages use compatible design information.