Sp3d | Intergraph

For the individual engineer: Yes. Holding SP3D skills makes you highly employable. Senior SP3D modelers command salaries 30-50% higher than generic CAD drafters.

For the organization: Yes, but plan for the long term. The initial licensing and training costs for SP3D Intergraph are high, but the reduction in construction rework (which can cost millions per field weld cut-out) pays for the software ten times over.

SP3D is not just a tool; it is a digital twin engine for the industrial world. Whether you are modeling a subsea manifold or a nuclear reactor containment building, SP3D Intergraph provides the rule-driven, intelligent environment necessary to build it right the first time.


SP3D is not intuitive for CAD users from non-plant backgrounds. Invest 2–3 weeks in structured training (official Hexagon course) before starting real project work. The learning curve is steep, but the productivity for large-scale plant design is unmatched.

SmartPlant 3D version referenced: 2019–2024. Interface varies slightly, but core concepts remain constant.

Intergraph Smart 3D (formerly SmartPlant 3D ) is an industry-leading 3D design solution for industrial facilities like power plants, oil refineries, and offshore structures. It focuses on improving engineering efficiency through rule-based design and real-time collaboration. Core Capabilities & Key Features Rule-Based Design

: Uses parametric and rule-based modeling to ensure designs follow specific standards from the start, which reduces errors and downtime. Real-Time Collaboration

: Supports concurrent design, allowing multiple team members to work on the same model simultaneously. Global Workshare

: Facilitates large-scale projects by enabling distributed teams to share data across different geographical locations. Intelligent Automation : Automates repetitive tasks such as generating Isogen isometric drawings and orthographic reports. Major Design Disciplines Defining Parts - Intergraph Smart 3D - Reference Data

Intergraph Smart 3D (commonly known as SP3D) is a leading data-centric 3D computer-aided design (CAD) solution used for the engineering and design of complex industrial facilities. Developed by Intergraph (now a part of Hexagon), the software provides a comprehensive suite of tools for modeling piping, structural elements, electrical systems, and equipment for plants, ships, and offshore platforms. The Core Value of SP3D

Unlike traditional CAD software that focuses primarily on geometry, SP3D is data-centric. This means that every object in the 3D model—whether a pipe, a valve, or a structural beam—is associated with specific engineering data stored in a central database. This approach ensures that the design is "intelligent," allowing for: sp3d intergraph

Automated Error Checking: Features like Interference Detection automatically identify clashes between different systems (e.g., a pipe running through a structural beam) in real-time.

Rule-Based Design: The software uses built-in engineering rules and specifications to guide designers, ensuring that only valid components are placed according to project standards.

Concurrent Engineering: Multiple designers across different disciplines can work on the same model simultaneously through Global Workshare, with the database managing access and permissions. Key Capabilities and Workflows

The software is organized into various "tasks" or modules that cater to specific engineering disciplines: Intergraph Smart 3D - Hexagon

Intergraph Smart 3D (often referred to as SP3D) is a next-generation 3D design solution developed by Hexagon PPM to support complex engineering, procurement, and construction (EPC) projects. As a data-centric and rule-driven tool, it enables global collaboration and real-time concurrent engineering across multiple disciplines, making it a cornerstone for industrial facility design. Core Features of Intergraph Smart 3D

Smart 3D moves beyond traditional CAD files by storing design data in a central database, ensuring all team members have immediate access to the latest project information.

Rule-Based Design: The software enforces engineering rules and standards from the start, which minimizes design errors and ensures consistency throughout the project.

Global Workshare: Multiple teams across different geographical locations can work on the same model simultaneously with automatic updates.

Automated Deliverables: Thousands of drawings and reports, including orthographic and isometric drawings, are generated automatically from the 3D model based on predefined rules.

Laser Scan Integration: The platform supports point cloud data, allowing engineers to incorporate accurate "as-built" information into greenfield or revamp projects. Multi-Discipline Engineering Capabilities For the individual engineer: Yes

Smart 3D provides a unified environment where various engineering tasks are integrated into specialized modules: Systems and Specifications - Intergraph Smart 3D - Help

In the context of Intergraph Smart 3D (formerly SP3D) , "developing a proper piece" typically refers to the creation and configuration of a 3D model component or a custom Catalog Part that integrates seamlessly with engineering deliverables.

The following steps outline how to develop a high-quality "piece" (part) within the Smart 3D environment, from catalog definition to isometric output. 1. Define the Piece in the Reference Data (Catalog) A proper piece begins in the Intergraph Smart 3D Catalog

. You must define its physical and logical attributes using the Bulk Load Utility Part Class

: Categorize the piece (e.g., Piping, Equipment, or Support).

: Use Visual Basic (VB6) or .NET to create the geometry symbol. A "proper piece" must have accurate Connect Points (nodes) to allow it to snap to pipes or structures. Specifications : Add the piece to the relevant Material Specification (Spec) so designers can select it during routing. 2. Modeling & Placement Once the piece is in the catalog, it can be modeled in the 3D Environment Task Selection Hangers and Supports tasks to place the piece. Precision Placement

ribbon to ensure the piece is at the exact coordinates required by the P&ID. Interference Checking Clash Detection

to ensure your new piece does not overlap with existing structures or electrical trays. 3. Configure Drawing & Isometric Output

For a piece to be "properly" developed, it must appear correctly on engineering drawings. Isometric Styles : Configure the

drawing styles to dictate how the piece is represented in 2D. Border Templates SP3D is not intuitive for CAD users from

: If the piece requires a specific title block or label, use the Drawing Editor to update the border template (.sha or .igr files). Property Labels

(e.g., Tag Number, Material) so that the piece is automatically identified in the bill of materials (BOM). 4. Validation & Management MTO (Material Take Off)

: Verify that the piece is correctly counted in the Material Take Off reports. Status Management

: Move the piece from "Working" to "Approved" status to lock the design for construction. Do you need specific Visual Basic code for a custom symbol, or help with Bulk Loading a specific part class?

Place a support at a specific location - Intergraph Smart 3D - Help


Piping is where SP3D shines. Users work in a "Roads & Rails" navigation method (walking through the plant) or standard orbit.

Because SP3D saves deltas (changes) to a central database, opening old versions is complex. Unlike file-based systems (where you save Project_V2.dwg), SP3D requires database restoration or change logs.


Traditional CAD drafters often struggle with SP3D because they cannot "cheat." In AutoCAD, you can break a line or move a block arbitrarily. In SP3D, component behavior is locked by the spec.

In SP3D, the 3D view is simply a visualization of the database. You can change a component's size in the data table, and the 3D model updates instantly. This is revolutionary for revision control. If a valve specification changes from a gate valve to a globe valve, the entire project updates with one database query—no manual redrafting.