Detailed Engineering of
Grain Elevators

From initial complex conceptualization to facility commissioning. We deliver detailed engineering for large-scale processing plants and produce high-fidelity BIM models.

Request a quote
Request a consultation

Grain Handling and Storage Facility Engineering

A grain elevator is an efficient solution for your business. A modern, high-tech elevator complex can receive, process, and preserve your harvest. Grain prices are traditionally lowest during harvest season and highest in spring. Storage needs vary significantly among businesses. Some require multiple cycles of filling and emptying their silos, while others need single-time filling after harvesting their own crop or storage of purchased grain for further processing or sale. Owning storage capacity enables you to preserve large volumes of high-quality grain.

We will engineer the equipment layout for each process area

Scope of Engineered Facilities

Core project portfolio

  • Weighbridge complex
  • Laboratory with sampler unit
  • Truck raw material receiving bay
  • Rail raw material receiving bay
  • Receiving and cleaning tower with scale
  • Metal silo storage for grain
  • Control room and electrical switchgear room
  • Drying unit
  • Truck loading bay
  • Administrative and amenities building

Auxiliary facilities

  • Fire water reserve tank with pump station
  • Water treatment plant
  • Gas supply system
  • Transformer substation
Utility requirements
  • Electricity
  • Water
  • Natural gas
Design schedule
100
working days
Raw materials
  • Grains and oilseeds
Finished product
  • Commercial grain

Stages of
Grain Elevator Engineering

We develop design and working documentation in BIM, performing all relevant calculations of the strength of the complex structures, which allows us to save the customer a significant part of the financial costs for concrete work, the manufacture of metal structures and the selection of process equipment, while eliminating all collisions between elements at the design stage, which is one of the most important tasks in the design of agricultural facilities.

Up to $60,000
client construction cost optimization
3-6 months
for complete facility design cycle
≈0%
Risk of on-site construction errors is minimized

Request a quote for your project

Submit your inquiry
Fill out the form and we will contact you to discuss the project and prepare a quotation
Client engagement
  • Client needs assessment
  • Preliminary design brief
  • Production goals and objectives
Work plan approval
  • Expected deliverables
  • Project timeline
  • Engineering service cost
Contract execution
  • Conceptual 3D model development
  • Site integration of the complex
  • Contract documentation
Site investigations
  • Geodetic surveys
  • Geotechnical surveys
  • Environmental surveys
LOD 200 model development
  • Equipment modeling
  • Structural modeling
  • Clash detection and resolution
Detailed design development
  • Load analysis
  • Structural analysis
  • Bill of materials and equipment specifications
Management of design documentation expert review
  • Preparation of the submission package for state or non-state review
  • Resolution of all expert comments
  • Securing the positive review report for construction permit
LOD 300 model development
  • Detailed structural geometry modeling
  • Component connection design development
  • Material property data integration
Construction documentation development
  • Detailed plans and sections
  • Utility networks coordination
  • Comprehensive material and equipment schedules

Comprehensive BIM-based
facility design

ATI develops projects using BIM technology. The key advantages of BIM models are their precision, high level of detail, superior visualization capabilities, and significant reduction in construction timelines. Projects based on quality BIM models exhibit 30% fewer errors compared to those utilizing CAD.

1.
Optimization of planning and procurement processes
A key advantage of BIM-based design is the ability to accurately calculate all required materials for project execution. Precise quantity take-offs prevent both material overruns and shortages, saving time and financial resources.
2.
Visualization of the facility prior to construction commencement
BIM enables evaluation of the facility's integration into the overall architectural style. If necessary, specific details can be modified during the design phase. The model can be produced using 3D printing.
3.
3D visualization integrated into design documentation
Each node can be examined from all angles, providing a deeper understanding of its structure and assembly details. This enhances coordination among on-site specialists, streamlining and accelerating their work.
4.
Automated generation of technical documentation from 3D model
The BIM model enables rapid generation of drawings for multiple sections and nodes without loss of detail.
5.
Reduction of errors and omissions
The model and documentation are fully coordinated. A BIM-based project can reduce construction time and costs by up to 30%.
6.
Accurate data for building reconstruction
Building reconstruction projects are often complex due to the absence of accurate as-built drawings for existing structures. Creating a BIM model of the existing facility provides the most precise representations and source data for the subsequent project, enabling detailed planning of all necessary reconstruction works.

Precise and detailed BIM models for clash avoidance

30% fewer errors
in project documentation 
Select the BIM model discipline
for display
Hold down the left mouse button
and drag the image
Scale 50%
We utilize BIM models in place of CAD models

BIM models provide precise geometry, dimensions, and spatial positioning of all components. Conventional design typically approximates utility routing without detailed node design or thorough tracing, forcing construction teams to improvise assembly methods. BIM-driven design eliminates uncoordinated nodes, sections of engineering networks, and all clashes or discrepancies.

During the design phase, it is possible to verify whether sufficient space is allocated for each utility to accommodate technological processes and to confirm that pipes and cables do not intersect. This approach minimizes the risk of installation errors.

Stages of 3D model development

Online presentation
We will present the completed BIM model and discuss the engineering approach during an online presentation
Revit family creation
Creating 3D models in Revit and Advance Steel
Breakdown of the model by floors and planning sections
Structural analysis in LIRA-SAPR
3D model refinement based on load analysis results
Model review for errors and clashes
Populating the 3D model with material properties and parameters
Model audit for redundant volumes
Review of element standardization and removal of duplicates
Removal of redundant elements in interface zones

Completed projects based on our designs

Client benefits when partnering with
ATI engineering

Full-cycle detailed engineering

Facility conceptual model

Facility conceptual model

The facility conceptual model is developed using BIM technologies to provide an initial project representation and align basic design solutions with the client. We develop preliminary solutions based on client requirements and technological needs for buildings and structures. The conceptual model constitutes a distinct stage of pre-project development.

Detailed design development

Detailed design development

An information model is developed in BIM across all disciplines at LOD 100 and 200. Upon model completion, a full set of documentation is issued, sufficient for expert review and construction permit acquisition. Working in BIM enables the delivery of high-quality design documentation already at the detailed design stage, free of clashes and with fully coordinated disciplines. Technical solutions developed in BIM are justified and optimized.

Construction Documentation development

Construction Documentation development

Construction documentation is the detailed part of the deliverables issued by the client directly to the contractor for construction. To enhance buildability, ATI Engineering consistently provides a higher level of detail in its documentation. This facilitates seamless collaboration between the client and the construction team.

Construction documentation is distinct from detailed design and comprises:

  • Detailed workshop drawings for structural connections with 3D illustrations.
  • Comprehensive floor plans, complete elevations with material specifications, supported by axonometric diagrams, sections, and 3D visualizations.
  • Detailed bills of materials and equipment schedules.

Master plan development

Master plan development

Master planning is a critical stage in facility creation, as it determines the formation of a favorable surrounding environment for the building.

ATI's master planning specialists develop site solutions across all project stages, starting from the architectural concept. We meticulously plan the organization of functional zones and utilize the territory rationally. Our goal is to achieve high-quality and cost-effective construction while establishing a controlled surface water drainage system.

We design the master plan considering the aesthetic perception of individual zones and the facility as a whole. We organize safe and convenient movement for vehicles and pedestrians within the project site. The facility is optimally positioned on the plot. We achieve minimal earthworks volume to optimize the budget.

Structural engineering solutions

Structural engineering solutions

АТI employs comprehensive BIM design, enabling the development of complete agricultural facility projects with complex technology and structures. The use of 3D modeling and advanced load analysis software ensures the creation of highly efficient structures without material overuse.

The structural model is developed with precise spatial placement of foundations, piles, pile caps, beams, floor slabs, and other elements. Materials and technical specifications (concrete class, steel grade, etc.) are assigned to all structures. Reinforcement detailing is performed, including layout of rebar and cages, bar spacing, diameter and grade assignment, and creation of stirrups and embedded parts. Required concrete cover to reinforcement is applied according to structural design standards.

Drawings are generated, including views, sections, embedded part location diagrams, specifications for process equipment, cast-in-place structures, embedded parts schedules, and steel take-off reports.

Utility networks and equipment

Utility networks and equipment

Leveraging advanced software suites and a team of qualified specialists across all disciplines, including automation engineers, ATI delivers optimized, high-quality design solutions. We perform detailed capacity calculations and select the most efficient equipment to prevent client cost overruns during facility construction.

The use of a centralized server at ATI ensures all project participants work with the same current model - solutions are coordinated instantly, and technical conflicts are resolved promptly. This approach guarantees both the highest quality of design solutions and accelerated development timelines.

Equipment and materials for utility systems are integrated into the model with precise dimensions and spatial placement. Pipelines and ducts are modeled with defined cross-sections, slope magnitude and direction, and include connecting elements, fittings, and insulation materials.

Process engineering solutions

Process engineering solutions

The agricultural processing technology forms the basis for developing structural, steelwork, and other design disciplines. The building and structure design facilitates the operation of process equipment, as well as convenient maintenance and personnel workflow. A fundamental process flow diagram is developed, upon which the BIM model of the process equipment is built. The product, as required, is routed to various machines for cleaning, drying, treating, and sorting.

Different material flow paths are controlled by solenoid valves, manual gates, conveyors, and bucket elevators. All machines, gravity flow systems, silos, and conveying equipment are integrated into the BIM model. They feature precise geometry, ensuring correct placement of support points and embedded parts in reinforced concrete and steel structures. The process equipment specifications encompass all machines and mechanisms, including gravity spouts, tees, elbows, gates, and other components.

Specialized and additional design documentation sections

Specialized and additional design documentation sections

All specialized sections of the design documentation are developed to the extent required for expert review approval.

These include civil defense measures and emergency prevention plans for natural and man-made disasters, developed for hazardous production facilities, especially hazardous, technically complex, and unique structures, as well as defense and security site facilities.

Supervision by the engineer's Supervision

Supervision by the engineer's Supervision

The availability of a BIM model and detailed construction documentation enables high-quality, thorough, and responsible designer`s supervision during the construction, reconstruction, and major renovation of buildings and structures. The supervision provided by the design organization is carried out in coordination with specialists performing construction control.

Our engineer will address your inquiries, propose a tailored solution for your facility, and provide a detailed quotation
Submit an inquiry

We operate across Russia, CIS countries, and globally

Advancements in information technology and logistics networks have minimized the significance of geographical distance in the collaboration between designers and clients. Tools such as video conferencing, email, and cloud services enable efficient project execution with customers across all regions.
On-site client meetings
They ensure a precise understanding of client specifications and enable swift resolution of technical issues.
Video conferencing and calls
When on-site meetings are not feasible, video conferences and telephone calls maintain consistent communication and facilitate prompt resolution of critical matters.
We maintain contact with clients at any distance and are always happy to meet in person.
Email and instant messengers
Rapid information exchange via email and messengers enables prompt feedback and document revisions.
Utilization of cloud services
Cloud platforms for collaborative project work streamline document access and enable real-time edits.
Clear and structured project management plan
A clear project management plan, including a meeting schedule, communication protocols, and change order procedures, prevents misunderstandings and delays.

We perform pre-contract feasibility studies and preliminary design

Send a request
We will review your inquiry
We will clarify your requirements and analyze the preliminary design specification
We will prepare a preliminary commercial proposal including pricing, schedule and payment terms
We will present a LOD 100 conceptual model and finalize the design brief during an on-site meeting
Site integration of the complex within the master plan
Finalizing the technical specification, including the scope of main and auxiliary buildings, their parameters, equipment, capacity, and resource requirements
Revision of the commercial proposal
Contract execution

FAQ

Ask a question

The cost of engineering depends on the scope and complexity of the facility's components. The number of structures to be designed directly impacts the price. The quantity and complexity of the design disciplines required are also significant factors. The greater the variety of utility networks within the facility, the higher the engineering cost.

New construction is typically less expensive than reconstruction. In reconstruction projects, all existing building elements must be modeled and checked for new loads, followed by equipment layout, development of strengthening solutions, and potential process redesign due to spatial constraints or the high cost of reinforcing existing structures. The search for optimal solutions, equipment replacement, and the time invested all contribute to higher design costs.

The design of a grain elevator typically requires 80 to 120 working days:

  • 20–30 working days for 3D model development
  • 20–30 working days for detailed design development
  • 20–30 working days for non-state expert review
  • 20–30 working days for construction documentation development

The requirement for a state expert review will extend the schedule by approximately 60 working days, covering the period from document preparation to receiving a positive approval.

Reconstruction projects typically take longer to design than new complexes.

If equipment suppliers are changed during the design process, this necessitates modifications to the 3D model and impacts all related structures—steel and reinforced concrete floors, foundations, and gravity flow systems—as they are custom-designed for each specific equipment unit. The client must understand this and approach supplier selection with utmost seriousness. Implementing structural changes during the design phase is a time-consuming process.

Data on subsoil conditions is essential prior to commencing design. This necessitates preliminary site investigations. If geotechnical surveys for the project site already exist, design can begin immediately. If not, conducting these investigations typically requires 20-40 working days. It is important to note that after the final 3D model is created and the exact facility location is determined, additional targeted site investigations at specific points will be required.

  • Title documents for the land plot
  • Urban development plan
  • Site investigation reports
  • Approved list of process equipment to be used
  • Technical specifications from the equipment supplier

In most cases, structural analysis is performed using the LIRA-SAPR software suite. However, certain tasks exist for which software packages cannot provide precise or reliable results. In such instances, we perform manual calculations. Regardless of the calculation method employed, we guarantee the reliability of the results.

The non-state expert review and development of construction documentation typically require 60-100 working days. However, construction may need to start earlier due to weather conditions or urgent project commissioning requirements. We can prepare documentation for early construction start prior to completing the expert review and obtaining the construction permit. While we guarantee successful completion of the non-state expert review, all risks associated with commencing construction without permits are borne by the client.

Upon completion of the design stages "Detailed Design" and "Construction Documentation," the client receives the documentation in PDF format. Following the client's review of all documents, incorporation of required adjustments, and final payment, we print and bind four hard copies of the complete documentation and ship them to the client within 20 working days. Provision of drawings in DWG format is available upon request.