Online duration: 8 hours (published online course duration).
Audience:Process Control Engineers, Process Engineers, Research Engineers, Laboratory Personnel, Instrument Engineers and Supervisors.
Prerequisites: No prerequisites are listed for STA200.
Course material: Training slides and PITOPS software examples.
$445.00
STA200 is an online system identification course introducing transfer-function identification and industrial dynamic modeling. It examines how input-output process data can be used to estimate dynamics and how noise, drift and disturbances affect the interpretation of those estimates.
The course covers first-order and zero-order transfer functions, linearity, superposition and practical identification challenges. PITOPS laboratory examples explore transfer-function identification using open-loop data, closed-loop data or a mixture of both, including processes with multiple inputs.
Choose STA200 for model identification. PID100 connects process dynamics with PID tuning, while MPC700 model predictive control training examines model-based control applications. Read the industrial system identification guide.
Study system identification and dynamic modeling through engineer-developed, recorded video training grounded in decades of industrial process-control experience. AIAPC's course-development background connects engineering principles with practical plant-control work.
For course support, use the contact form or email [email protected]. Scheduled live classes and private team training can be arranged separately.
Relevant work contexts: Process or control engineers and modeling specialists who need a foundation in transfer-function identification and model interpretation. These examples describe applications of the subject, not a promise of industry-specific exercises, job placement or employment. Employers also assess experience, site procedures and role-specific qualifications. Explore the process-control skills and career guide for broader learning context.
Study how to interpret transfer-function parameters, distinguish process behavior from disturbances and examine the limitations of an identified model. The objective is to develop a basis for evaluating industrial dynamic models, rather than treating every fitted curve as a reliable description of the process.
The course syllabus covers:
This is recorded video training. For software-based exercises, contact AIAPC to confirm installation, compatibility and licensing requirements before enrolling. Live classes and company team training are arranged separately by appointment.
Compare the course catalog and learning paths, or review course completion certificate requirements before choosing your training.
STA200 introduces industrial transfer-function identification and dynamic modeling. The published syllabus includes first-order and zero-order transfer functions, linearity, superposition and challenges in identifying process dynamics. PITOPS examples examine how process data supports identification. Start with the industrial system identification guide to compare the subject with your learning goal.
STA200 focuses on identifying process dynamics. PID100 connects process dynamics with primary control and PID tuning, while MPC700 examines model-based predictive-control applications. Choose the subject that matches your gap in identification, tuning or predictive decisions; the connection between subjects does not make every course a required prerequisite.
STA200 introduces transfer-function identification and process dynamics through industrial input-output data and PITOPS examples. Its published topics include first-order and zero-order models, linearity, superposition, noise and disturbances. A graduate course may instead place greater emphasis on statistical estimation theory and algorithm derivation. Compare that objective with the industrial system-identification guide and the syllabus below.
Keep track of the input and output, sample interval, operating condition and disturbances. A fitted response is not, by itself, evidence that the model will describe another operating period. The guide distinguishes estimation and validation. If your next goal is using models in multivariable control, compare the separate scope and prerequisites of MPC700 industrial MPC training.
Continue with the practical learning article: First-Order Plus Dead-Time Model: A Worked Example. Review its worked example alongside the course topics above.