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Chemicals Industrial MaterialsTop 8 Best Chemical Process Design Software of 2026
Compare the Top 10 Best Chemical Process Design Software options and rankings using PRO/II, UniSim Design, and SuperPro Designer. Explore picks.
How we ranked these tools
Core product claims cross-referenced against official documentation, changelogs, and independent technical reviews.
Analyzed video reviews and hundreds of written evaluations to capture real-world user experiences with each tool.
AI persona simulations modeled how different user types would experience each tool across common use cases and workflows.
Final rankings reviewed and approved by our editorial team with authority to override AI-generated scores based on domain expertise.
Score: Features 40% · Ease 30% · Value 30%
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Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
PRO/II
Extensive thermodynamics and phase equilibrium support across unit operations
Built for chemical process design teams needing high-fidelity steady-state simulation.
UniSim Design
Integrated thermodynamics and unit operations for rigorous column and reactor modeling in one flowsheet
Built for process engineers building steady-state chemical flowsheets with rigorous thermodynamics.
SuperPro Designer
Integrated batch simulation with sizing and cost impacts across linked unit operations
Built for bioprocess teams needing detailed flowsheet, sizing, and early cost trade studies.
Related reading
Comparison Table
This comparison table reviews chemical process design and process modeling software across steady-state simulation, flowsheet and property packages, and optimization and modeling workflows. It contrasts tools such as PRO/II, UniSim Design, SuperPro Designer, SimaPro, and GAMS on their typical capabilities for unit operations, lifecycle or environmental assessment, and mathematical modeling. The goal is to help readers map each platform to specific engineering use cases and modeling requirements.
| # | Tool | Category | Overall | Features | Ease of Use | Value |
|---|---|---|---|---|---|---|
| 1 | PRO/II PRO/II provides steady-state process simulation for chemical and petrochemical processes with thermodynamics, equipment models, and material balance calculations. | process simulation | 8.9/10 | 9.4/10 | 8.2/10 | 8.9/10 |
| 2 | UniSim Design UniSim Design supports steady-state simulation and engineering workflows for process plants with property packages and unit operation models. | engineering simulation | 8.3/10 | 8.8/10 | 7.9/10 | 7.9/10 |
| 3 | SuperPro Designer SuperPro Designer simulates batch and continuous process plants with mass and energy balances, utilities, and schedule-based plant capacity analysis. | process economics | 8.2/10 | 8.7/10 | 7.9/10 | 7.7/10 |
| 4 | SimaPro SimaPro supports chemical process design decisions by calculating life cycle impacts tied to process flow inventories and product systems. | impact assessment | 7.8/10 | 8.0/10 | 7.2/10 | 8.0/10 |
| 5 | GAMS GAMS enables optimization-based chemical process design and parameter estimation by formulating flowsheet, equilibrium, and objective problems as mathematical programs. | optimization framework | 8.0/10 | 8.6/10 | 7.4/10 | 7.9/10 |
| 6 | Modelica Modelica provides an equation-based modeling language for thermofluid and chemical process systems that can be simulated in compatible tools. | equation-based modeling | 7.3/10 | 8.0/10 | 6.6/10 | 7.0/10 |
| 7 | OLI Systems Calculates thermodynamic properties and phase equilibrium for electrolytes, solvents, and industrial chemicals used in process design and optimization. | thermo modeling | 8.0/10 | 8.5/10 | 7.2/10 | 8.1/10 |
| 8 | ChemCAD Provides steady-state process simulation with equipment design, costing reports, and thermodynamic property estimation for chemical plants. | process simulation | 7.6/10 | 8.0/10 | 7.2/10 | 7.5/10 |
PRO/II provides steady-state process simulation for chemical and petrochemical processes with thermodynamics, equipment models, and material balance calculations.
UniSim Design supports steady-state simulation and engineering workflows for process plants with property packages and unit operation models.
SuperPro Designer simulates batch and continuous process plants with mass and energy balances, utilities, and schedule-based plant capacity analysis.
SimaPro supports chemical process design decisions by calculating life cycle impacts tied to process flow inventories and product systems.
GAMS enables optimization-based chemical process design and parameter estimation by formulating flowsheet, equilibrium, and objective problems as mathematical programs.
Modelica provides an equation-based modeling language for thermofluid and chemical process systems that can be simulated in compatible tools.
Calculates thermodynamic properties and phase equilibrium for electrolytes, solvents, and industrial chemicals used in process design and optimization.
Provides steady-state process simulation with equipment design, costing reports, and thermodynamic property estimation for chemical plants.
PRO/II
process simulationPRO/II provides steady-state process simulation for chemical and petrochemical processes with thermodynamics, equipment models, and material balance calculations.
Extensive thermodynamics and phase equilibrium support across unit operations
PRO/II stands out for its rigorous, production-oriented process simulation engine built for chemical and refining workflows. It supports steady-state flowsheet modeling with detailed equipment blocks, thermodynamics selection, and reaction handling for process design and debottlenecking. The software offers integrated material and energy balances, phase behavior, and utilities modeling to produce design-ready results. Strong results depend on disciplined model setup, especially for thermodynamic consistency across large flowsheets.
Pros
- Industrial-grade steady-state simulation with deep unit-operation coverage
- Robust thermodynamics and phase-equilibrium modeling for complex mixtures
- Reliable material and energy balances with detailed streams and utilities
Cons
- Setup complexity rises quickly for large flowsheets and many components
- User workflow can feel rigid compared with newer, more visual tools
- Model tuning and validation take significant expertise and time
Best For
Chemical process design teams needing high-fidelity steady-state simulation
More related reading
UniSim Design
engineering simulationUniSim Design supports steady-state simulation and engineering workflows for process plants with property packages and unit operation models.
Integrated thermodynamics and unit operations for rigorous column and reactor modeling in one flowsheet
UniSim Design stands out for tightly integrated steady-state process simulation from flowsheeting to thermodynamics and equipment sizing within a single engineering workflow. Core capabilities cover property package selection, reaction engineering, phase equilibrium, and rigorous mass and energy balance across distillation, absorption, and reactor systems. It also supports utilities and design checks such as heat duties, column specifications, and stream property reporting that map directly to chemical process design deliverables. Strong integration reduces handoff friction between simulation results and downstream design activities.
Pros
- Integrated flowsheeting with equation-oriented models for steady-state mass and energy balances
- Robust thermodynamics with multiple property package options for phase equilibrium modeling
- Reliable column and unit operations design outputs including heat duties and stream properties
- Good support for reactions and recycle convergence typical in process design
Cons
- Setup complexity rises quickly for large models with many components and units
- Convergence tuning for recycle systems can require expert-level judgement
- Less suited for real-time, dynamic control design compared with dynamic simulators
Best For
Process engineers building steady-state chemical flowsheets with rigorous thermodynamics
SuperPro Designer
process economicsSuperPro Designer simulates batch and continuous process plants with mass and energy balances, utilities, and schedule-based plant capacity analysis.
Integrated batch simulation with sizing and cost impacts across linked unit operations
SuperPro Designer stands out with a workflow-first process design experience built for biopharma and industrial bioprocess planning. It supports unit operations, material and energy balances, and automated sizing of streams and equipment from defined process steps. The tool also emphasizes operational modeling such as batch and scheduling logic, plus utilities and waste management within integrated process flowsheets. Modeling outputs include cost and performance metrics tied to the defined process, enabling early-stage process and facility trade studies.
Pros
- Strong unit-operation library built for bioprocess and upstream to downstream flowsheets
- Automated mass and energy balance propagation across connected streams
- Includes utility, waste, and operational cost modeling tied to process definitions
Cons
- Model setup can become complex for nonstandard chemistry or highly custom equipment
- Learning curve is steep for batching, scheduling, and reconciliation workflows
- Outputs can require expert validation against plant data for high-stakes decisions
Best For
Bioprocess teams needing detailed flowsheet, sizing, and early cost trade studies
More related reading
SimaPro
impact assessmentSimaPro supports chemical process design decisions by calculating life cycle impacts tied to process flow inventories and product systems.
Life Cycle Assessment database linking unit process flows to impact assessment methods
SimaPro is distinct for tying chemical process design work to life cycle impact assessment through configurable impact assessment methods. It supports building process models with unit operations, material and energy flows, and then evaluating environmental burdens across functional units. The tool also enables scenario comparison by swapping inputs and upstream datasets to quantify how design changes shift impacts. SimaPro’s design workflow is strongest when process modeling and impact assessment need to be handled together in one analysis pipeline.
Pros
- Integrated life cycle impact assessment tied to modeled process flows
- Extensive configurable impact assessment methods for environmental comparisons
- Scenario analysis supports comparing design options via changed inputs
Cons
- Process modeling requires careful setup of datasets and system boundaries
- Model management and method selection can feel complex for new teams
- Chemical process design outputs depend on data quality in the included inventory
Best For
Teams coupling chemical process modeling with life cycle environmental impact analysis
GAMS
optimization frameworkGAMS enables optimization-based chemical process design and parameter estimation by formulating flowsheet, equilibrium, and objective problems as mathematical programs.
Equation-based GAMS modeling system with sets and indexed constraints for process optimization
GAMS stands out for using a domain-oriented modeling language to express process equations and optimization problems with precision. It supports mixed integer and nonlinear optimization workflows through solver-ready model formulation rather than a strictly visual flowsheet approach. Core chemical process design tasks include equilibrium and reaction models, flowsheet optimization, and decomposition-style problem solving using structured sets and equations.
Pros
- High-fidelity modeling via equation-based language for process units and constraints
- Robust optimization support for mixed-integer and nonlinear chemical design problems
- Clear separation of model, data, and sets for maintainable large-scale formulations
- Strong extensibility with custom formulations and solver configuration
Cons
- Text-based modeling has a steeper learning curve than visual flowsheet tools
- Workflow setup requires solver familiarity for reliable tuning and performance
- Limited native graphics and limited built-in process simulation UX
- Model debugging can be slower than diagram-centric design environments
Best For
Teams building rigorous optimization models for chemical process design and scheduling
More related reading
Modelica
equation-based modelingModelica provides an equation-based modeling language for thermofluid and chemical process systems that can be simulated in compatible tools.
Acausal, equation-based modeling with reusable component libraries for transient system simulation
Modelica is distinct because it models chemical process systems with equation-based, acausal modeling rather than block-by-block signal flow. Core capabilities include component libraries for thermodynamics and process modeling, plus simulation through Modelica-compatible solvers that can handle stiff and hybrid dynamics. It supports reusable domain models and system-level design through standardized Modelica language constructs, with strong suitability for process dynamics and control integration. For chemical process design that requires tight integration of unit operations and transient behavior, it provides a consistent mathematical representation from component level to plant topology.
Pros
- Acausal equation modeling supports rigorous unit-operation formulations
- Reusable component models accelerate plant-level assembly and iteration
- Strong support for dynamic simulation across coupled process variables
Cons
- Modelica language and acausal debugging has a steep learning curve
- Lack of turnkey chemical process design workflows versus dedicated CAPE tools
- Library coverage varies by specialty, which can require custom modeling
Best For
Teams building dynamic chemical process models and control-ready architectures
OLI Systems
thermo modelingCalculates thermodynamic properties and phase equilibrium for electrolytes, solvents, and industrial chemicals used in process design and optimization.
OLI thermodynamic property models for electrolytes and mixed non-ideal systems
OLI Systems focuses on chemical process design through property prediction and thermodynamic modeling used for simulation and design calculations. The software is known for supporting electrolyte systems and non-ideal mixtures where standard ideal or cubic-EoS assumptions often break down. Core capabilities revolve around generating reliable phase equilibria, activity coefficients, and separation-relevant properties that feed into flowsheet design and sizing. This emphasis on rigorous property packages makes it distinct versus design tools that treat thermodynamics as a secondary concern.
Pros
- Strong thermodynamics for electrolytes and non-ideal mixtures
- Property outputs directly support phase equilibrium and separation design work
- Widely applicable to process simulation and design calculations needing rigor
Cons
- Configuration of property models can be complex for new teams
- Setup effort can be high for users without deep thermodynamics knowledge
- Learning curve is steeper than workflow-first process tools
Best For
Teams designing electrolyte and non-ideal systems needing accurate thermodynamics
More related reading
ChemCAD
process simulationProvides steady-state process simulation with equipment design, costing reports, and thermodynamic property estimation for chemical plants.
Thermodynamics property package and phase-equilibrium engine used directly inside flowsheet calculations
ChemCAD stands out for process modeling that targets both steady-state chemical process design and detailed thermodynamic property workflows. It supports common flowsheet unit operations with built-in calculation engines for mass and energy balances, equilibrium, and reaction systems. The package is strong for tasks like sizing separations, selecting thermodynamic methods, and generating engineering-ready simulation outputs.
Pros
- Extensive unit operation library for common chemical plant modeling tasks
- Robust thermodynamics setup for property packages and phase equilibria calculations
- Good support for reaction and separation calculations in integrated flowsheets
Cons
- Model setup can feel rigid when workflows diverge from standard templates
- Thermodynamic configuration requires careful attention to avoid inconsistent results
- Less streamlined usability than newer GUI-driven process simulators for some tasks
Best For
Chemical process engineers building steady-state flowsheets with strong thermodynamics control
How to Choose the Right Chemical Process Design Software
This buyer’s guide explains how to select chemical process design software for steady-state flowsheets, batch and capacity planning, life cycle impact workflows, optimization models, and dynamic, control-ready architectures. It covers PRO/II, UniSim Design, SuperPro Designer, SimaPro, GAMS, Modelica, OLI Systems, and ChemCAD alongside other tools in the category. The guide focuses on concrete capabilities like thermodynamics depth, unit-operation modeling, equipment sizing outputs, LCA coupling, and equation-based optimization.
What Is Chemical Process Design Software?
Chemical process design software is used to model chemical and industrial processes with mass and energy balances, thermodynamic property calculations, and unit-operation representations that produce engineering-ready design outputs. It helps teams size equipment and compute heat duties, phase behavior, and reaction and separation performance inside a structured process model. Tools like PRO/II and UniSim Design target steady-state process simulation with rigorous thermodynamics and flowsheeting workflows. SuperPro Designer targets batch and scheduling-driven plant modeling with sizing and cost impacts tied to process definitions.
Key Features to Look For
The right feature set determines whether outputs support safe design decisions or stall in setup, convergence, and validation work.
Deep thermodynamics and phase-equilibrium modeling across unit operations
PRO/II is built for thermodynamics and phase-equilibrium support across a wide set of unit operations, which is critical for complex mixtures. ChemCAD also embeds a thermodynamics property package and phase-equilibrium engine directly inside flowsheet calculations.
Integrated steady-state flowsheeting tied to thermodynamics and equipment outputs
UniSim Design combines equation-oriented steady-state flowsheet modeling with property package selection and outputs that support column and reactor design. ChemCAD and PRO/II both support steady-state mass and energy balance workflows that produce engineering-ready simulation results.
Rigorous column and reactor modeling within the same design workflow
UniSim Design stands out for integrated thermodynamics plus unit operation modeling that supports rigorous column and reactor work in a single flowsheet. PRO/II provides detailed equipment blocks, reaction handling, and phase behavior suited to production-oriented steady-state design.
Batch simulation, scheduling logic, and sizing with utility and waste modeling
SuperPro Designer focuses on batch and continuous process plants with automated mass and energy balance propagation across linked unit operations. It also includes utility, waste, and operational cost modeling tied to process definitions for early-stage trade studies.
Life cycle impact assessment coupled to modeled process flows
SimaPro ties process modeling outputs to life cycle impact assessment using configurable impact methods. It supports scenario comparison by changing inputs and upstream datasets so design options can shift impacts based on the modeled inventories.
Equation-based optimization and constraint modeling for scheduling and design
GAMS uses an equation-based modeling language that expresses flowsheet, equilibrium, and objective problems as mathematical programs. It also supports mixed integer and nonlinear optimization workflows with indexed constraints and solver-ready model formulation.
How to Choose the Right Chemical Process Design Software
A reliable selection starts by matching process type and deliverables to the software’s modeling core.
Match the modeling paradigm to the work scope
Choose PRO/II, UniSim Design, or ChemCAD for steady-state chemical process design because they center on steady-state flowsheet modeling with built-in mass and energy balances. Choose SuperPro Designer for batch process plants because it models batch and scheduling logic and propagates sizing impacts across connected unit operations.
Prioritize thermodynamics depth for the chemistry that breaks standard assumptions
Use OLI Systems when electrolyte systems and non-ideal mixtures require thermodynamic rigor because its property models target electrolytes and mixed non-ideal systems. Use PRO/II or ChemCAD when broad unit-operation phase behavior must remain consistent across large flowsheets.
Pick the tool that produces deliverables in the same workflow engineers use
UniSim Design supports integrated steady-state workflows that map design activities into column specifications, heat duties, and stream property reporting. PRO/II targets production-oriented steady-state modeling with detailed equipment blocks and integrated material and energy balances.
Select a specialization layer only if the project demands it
Choose SimaPro when chemical process decisions must be evaluated with life cycle environmental impacts because it links modeled unit process flows to impact assessment methods and supports scenario comparison. Choose GAMS when the project needs optimization-based design and scheduling because it models flowsheet and equilibrium equations as optimization constraints rather than diagram-only simulation.
Choose dynamic and control-ready modeling when transient behavior is required
Select Modelica when transient system behavior and reusable acausal component models matter for dynamic chemical process modeling. Use Modelica-compatible solvers to simulate stiff and hybrid dynamics, while recognizing that it lacks turnkey chemical process design workflows found in dedicated CAPE tools like PRO/II.
Who Needs Chemical Process Design Software?
Chemical process design software is used by teams that need reliable thermodynamics, unit-operation modeling, and engineering outputs for design decisions.
Chemical process design teams focused on high-fidelity steady-state simulation
PRO/II is best for chemical process design teams needing high-fidelity steady-state simulation with extensive thermodynamics and phase equilibrium across unit operations. ChemCAD is a strong fit for steady-state flowsheets that require close control of thermodynamic property packages and phase-equilibrium calculations.
Process engineers building rigorous steady-state column and reactor flowsheets
UniSim Design is best for process engineers building steady-state chemical flowsheets with integrated thermodynamics and unit operations for rigorous column and reactor modeling. UniSim Design also targets recycle convergence and reaction engineering behaviors typical in process design.
Bioprocess teams planning batch operations with capacity, utilities, and waste implications
SuperPro Designer is best for bioprocess teams needing detailed flowsheet modeling with integrated batch simulation and sizing impacts. It also connects scheduling and operational logic to utility, waste, and cost modeling for early facility and process trade studies.
Teams coupling chemical design with life cycle environmental impact analysis
SimaPro is best for teams coupling chemical process modeling with life cycle environmental impact analysis because it evaluates environmental burdens using configurable impact assessment methods. It enables scenario comparison by swapping inputs and upstream datasets to quantify how design changes shift impacts.
Common Mistakes to Avoid
Common project failures come from choosing the wrong modeling core, underestimating thermodynamics setup effort, or adopting workflows that create validation bottlenecks.
Starting with a steady-state tool for work dominated by batch scheduling logic
SuperPro Designer is the better match when batch simulation and scheduling logic must drive capacity and operational outcomes. Relying on steady-state-focused tools like PRO/II or ChemCAD for batch reconciliation can create extra validation work when batch timing drives utilities and waste results.
Under-specifying thermodynamics for non-ideal or electrolyte systems
OLI Systems is the correct choice when accurate phase equilibria for electrolytes and non-ideal mixtures are required for separation-relevant properties. Using generic steady-state property approaches in broader tools like UniSim Design without electrolyte-capable thermodynamics can lead to inconsistent phase behavior across designs.
Building optimization-heavy problems in a simulator-centric workflow
GAMS is designed to express equilibrium, flowsheet constraints, and objectives as optimization problems using equation-based modeling. Attempting advanced mixed-integer or nonlinear optimization in tools focused on diagram-based simulation like PRO/II can slow constraint debugging and solver tuning.
Choosing dynamic modeling without accepting acausal modeling and debugging complexity
Modelica supports dynamic chemical process models with acausal equation modeling and reusable component libraries. Teams that need a turnkey chemical process design workflow will hit higher setup and language debugging complexity than dedicated CAPE tools like UniSim Design.
How We Selected and Ranked These Tools
we evaluated every tool on three sub-dimensions and computed an overall weighted average as overall = 0.40 × features + 0.30 × ease of use + 0.30 × value. Features carry the largest weight because chemical process design success depends on having the thermodynamics, unit operations, and modeling outputs needed for deliverables. Ease of use affects how fast teams reach model convergence and validate results across flowsheets and equipment cases. Value affects whether teams can reuse modeling components and workflows without excessive tuning and rework. PRO/II separated from lower-ranked tools by combining high feature depth for thermodynamics and phase equilibrium across unit operations with an industrial-grade steady-state simulation workflow that supports reliable material and energy balances for complex design cases.
Frequently Asked Questions About Chemical Process Design Software
Which chemical process design software is best for high-fidelity steady-state flowsheet simulation with rigorous thermodynamics?
PRO/II is built for production-oriented steady-state flowsheet modeling with detailed equipment blocks and strong phase behavior support. UniSim Design also targets rigorous steady-state simulation, but it emphasizes tight integration from thermodynamics selection through equipment sizing and design checks in one workflow.
Which tool is better for designing biopharma or industrial bioprocesses that run in batches and require scheduling logic?
SuperPro Designer is the strongest fit for biopharma and industrial bioprocess planning because it models batch and scheduling logic alongside material and energy balances. PRO/II can model steady-state chemical workflows well, but SuperPro Designer is purpose-built for operational batch simulation, waste management, and process step linkage.
What software handles both chemical process modeling and life cycle impact assessment in the same analysis pipeline?
SimaPro connects process model inputs to life cycle impact assessment using configurable methods and linked databases. That coupling is not the core workflow in ChemCAD or UniSim Design, which focus on simulation deliverables like heat duties, stream properties, and equipment sizing.
Which option is best when the main requirement is equation-based optimization for flowsheet decisions rather than visual unit operations?
GAMS supports process equation modeling and solver-ready optimization with mixed integer and nonlinear problem types. PRO/II and UniSim Design are strong for steady-state flowsheeting with equipment blocks, but they are not primarily built around equation-set optimization as the front-line workflow.
Which software is most suitable for dynamic chemical process design and control-ready modeling?
Modelica is designed for equation-based, acausal modeling with reusable component libraries and simulation through Modelica-capable solvers. That approach supports transient behavior and system-level plant topology more directly than steady-state tools like ChemCAD and UniSim Design.
Which tool provides the most reliable thermodynamic property modeling for electrolyte and non-ideal mixtures?
OLI Systems focuses on thermodynamic property prediction for electrolyte systems and non-ideal mixtures, with emphasis on activity coefficients and separation-relevant properties. That property rigor is its primary differentiator compared with steady-state flowsheet tools like ChemCAD, which still support thermodynamics but do not specialize specifically in electrolyte-focused models.
Which software is strongest for integrating thermodynamics selection, unit operations, and downstream design checks with minimal handoff?
UniSim Design stands out because thermodynamics, reaction handling, phase equilibrium, and equipment sizing live in a single flowsheeting workflow. PRO/II also delivers production-grade steady-state modeling, but UniSim Design is more tightly integrated for column and reactor modeling and design checks that map directly to deliverables.
Common problem: phase equilibrium results look inconsistent or unstable. Which tools are most sensitive to model setup and thermodynamic consistency?
PRO/II can produce high-fidelity results when thermodynamic choices stay consistent across large flowsheets, but inconsistent setup can degrade quality. UniSim Design also supports rigorous property packages, while OLI Systems tends to be more robust for electrolyte and highly non-ideal systems where standard assumptions fail.
Which tool is typically used to generate engineering-ready outputs such as stream properties, phase equilibrium, and equipment sizing for steady-state design?
ChemCAD is built for steady-state process modeling with built-in engines for mass and energy balances, equilibrium, and reaction systems that directly support separation sizing. UniSim Design and PRO/II also generate design-ready outputs, but ChemCAD is often selected when the workflow prioritizes thermodynamics control tightly inside the flowsheet calculations.
Conclusion
After evaluating 8 chemicals industrial materials, PRO/II stands out as our overall top pick — it scored highest across our combined criteria of features, ease of use, and value, which is why it sits at #1 in the rankings above.
Use the comparison table and detailed reviews above to validate the fit against your own requirements before committing to a tool.
Tools reviewed
Referenced in the comparison table and product reviews above.
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