Aspen Hysys Simulation Course; From Dummy to Pro

Explore the basis of Aspen Hysys by examining the simulation environment, oil and gas relevance, and access controls that grant or restrict tools once prerequisites are met.

Learn to add pure components to an Aspen Hysys simulation by selecting from category lists, clicking add, and quickly searching by name or formula.

Define two types of hypothetical components in Aspen HYSYS by creating a single hypothetical and adjusting properties like boiling point and temperature for a basic simulation.

Select the full, appropriate fluid package for your Hysys simulation by following guided questions and online research to determine necessity, then apply it to oil and gas processing scenarios.

Explore the simulation environment, define units and displays, and use the solver and object model to troubleshoot and run simulations.

Define a material stream in the Aspen Hysys environment and enter its component compositions. Set temperature and pressure, assign mass fractions, and configure defaults to model the process.

Master process stream analysis in Hysys by examining temperature and pressure effects, identifying boiling points, and evaluating stream performance to advance from dummy to pro in simulation.

Explore stream properties in the Aspen Hysys simulation course, learn to view property values with charts, analyze the correlation, and apply these insights to gas properties and related policies.

Explore how to customize the unit set in your Aspen Hysys simulation, selecting and aligning units such as temperature in Celsius, and applying or copying unit configurations across projects.

Explore how to run a case study in Aspen Hysys by selecting a stream, defining independent variables like pressure and temperature, and evaluating dependent properties such as density across ranges.

Learn how to model unit operations in Aspen HYSYS for gas processing, define an industry model with streams and equipment, and name components for clear project communication.

Use Aspen Hysys to simulate LNG storage and depressurization, modeling pressure changes, isolation strategies, and security considerations for safe two-phase separator operations in process engineering.

Configure a storage tank model to simulate energy storage, depressurization, and a recycle, with the process continuing at 61°C, and solar cells illustrating practical storage behavior.

Explore how a three-phase separator in Aspen Hysys distinguishes gas, liquids, and heavy hydrocarbons from mixed streams containing water, enabling practical modeling of gas-liquid-water separation.

Explore mixer simulation in Aspen HYSYS, building a mixer with multiple feed streams and a single outlet, configuring connections, and modeling comingle points for natural gas and gasoline transport.

Model and simulate process units and streams, set up storage configurations, and explore temperature effects and transport percentages within a dynamic environment.

Apply heater simulation in Aspen Hysys to raise a gas stream temperature from five to ten degrees by setting outlet conditions, calculating heater duty, and respecting pressure constraints.

Learn to model a cooler in Aspen Hysys, define design conditions, simulate temperature reduction and energy removal, and customize the condenser icon and naming.

Explore pump simulation in Aspen Hysys, modeling liquid streams to optimize pressure, outlet pressure, and flow rate. Analyze energy requirements and discharge connections to design effective pump configurations.

Model a gas compressor in Aspen Hysys to move natural gas and increase pressure, considering discharge conditions and horsepower. Compare centrifugal and reciprocating options and assess design and performance tradeoffs.

Explore expander simulation in Aspen HYSYS to optimize gas processing, handling methane and propane streams, discharge equations, and parameter design for efficient system performance.

Simulate a shell and tube heat exchanger in Aspen Hysys, defining inlet and outlet temperatures, pressures, and duty, using water as the fluid to meet target conditions.

Learn absorber simulation to model gas-liquid separation, optimize purification through absorption, and balance stage count, pressure, and temperature to reduce water content and improve purity.

Learn to model a distillation column using temperature-driven separation, set pressure and flow constraints, and iterate stage designs to optimize distillate quality and condenser behavior.

Learn to replace the boiler with a heat exchanger in a distillation column simulation, boost the feed pressure, and configure condenser and exchanger settings in Aspen Hysys.

Develop a pipeline model by defining segment count, diameter, pressure, and transport distance. Evaluate ground type, burial method, ambient conditions, and topography to predict flow and timing.

Analyze pipeline profiles with the Aspen Hysys simulation to identify major gradients and positive results along the route. Examine deposits and time history to understand what happened at each point.

Assess pipeline flow assurance by analyzing temperature effects, hydrates risk, and CO2 quotas to prevent disruptions. Apply models and standards to ensure safe, efficient operation across pipelines such as Keystone.

Model a conversion reactor in Aspen Hysys to produce hydrogen from methane via partial oxidation, defining components and two sequential reactions, and evaluating CO2, nitrogen, and hydrogen yields.

This course segment models an equilibrium reactor for hydrogen production and CO2 removal, using steam for purification and assessing conversion and reactor performance.

Learn step-by-step how to perform a recycle operation in Aspen Hysys, including adjusting temperature, pressure, and composition, and ensuring the recycled stream meets the 300 kg criterion.

Apply Aspen Hysys simulation techniques to adjust operation by modeling temperature controls, setting targets, and simulating emissions reduction while managing imputed variables.

Set operation in Aspen Hysys simulation: define the source and target streams, set pressure, temperature, fluids, and composition to model how changes in one stream affect the system automatically.

This lecture demonstrates oil characterization in hysys by using chromatography data to model crude oil, input compositions, blend, and install oil to generate product fractions.

Explore a real-world effluent water treatment case using Hysys simulation to design a process that removes ammonia, selects separation methods, and optimizes temperature and pressure parameters.

this lecture introduces basic troubleshooting, outlining a step-by-step problem-solving process, applying simple propositions, design, and a case study to understand equipment use and measurements.

Master practical troubleshooting in Aspen Hysys simulations by analyzing constraints, adjusting parameters, and solving scenario-based problems through stepwise calculations and data-driven decision making.

Compare design variants in a Hysys simulation, analyze composition and supply implications, and evaluate energy costs to troubleshoot operational scenarios.

Explore oil and gas transportation modeling in Aspen Hysys, covering gas calculations, four outlet streams to four stations, and defining components, including hypothetical ones, from boiling point and molecular mass.

Model oil and gas transportation with HYSYS by designing pipelines, segmenting routes, and analyzing oil–water mixing for safe, efficient, large-scale transport.

Configure a multi-segment oil and gas pipeline model in Aspen Hysys, allocate outlet splits, and set temperature and pressure checks. Export results to Excel for informed decision making.

Learn to model processes using Aspen Hysys, connect and interconnect unit operations, and practice more projects to build design motivation and become a professional.