Power Systems ENGINEERING Courses (PSEC)

Utility, IPP, ISO and other organizations in the electric power industry need engineers who have a solid comprehension of power flow behavior. This course covers steady state power flow analysis methods starting with the steady state power-angle relationship on transmission lines and continuing with methods of solution of load flow problems in large networks. The course also includes applications of multi-winding single- and three-phase transformers and phase-angle regulators in the steady state analysis of power systems.

Introduces engineers to power flow techniques for power system steady state analysis, with an emphasis on current practices and applications. Includes both theory and practice for modeling power system components and load flow solution techniques. Covers applications such as contingency analysis, linearized direct current load flow and voltage collapse. Discusses transfer limit analysis and system impact studies. Course also includes hands-on examples using PSS®E.

Provides a thorough coverage of today’s voltage and reactive power planning issues and of the tools and procedures that are most effective in studying them. Reviews voltage theory, nature of steady state and dynamic voltage phenomena, analytical tools and methods, voltage criteria and planning requirements such as reactive power planning. Also covers shunt and series compensation, SVCs, dynamic control and operational issues such as motor starting and capacitor allocation. This course is useful to power system planners and operators and those concerned with voltage stability.

Introduces project management process scheduling and controls for power system engineers. Topics include: project management concepts, controls and organizational structure, project tools and technology, work breakdown structures, critical path, project valuation methods (EVA), baselines, project estimating, resource scheduling, contract management, scheduling and scope change requests and parallel project management for the electrical and power systems industry.

Provides participants with an understanding of the design and operation of a modern industrial power system. Starting from basic concepts, the course shows how to design and operate a power system to meet the needs of a wide range of industries. Case studies, discussion of actual applications and class problems are used to illustrate and emphasize engineering principles being taught.

Covers a wide range of topics related to modeling and application of wind power. A general summary of specific wind turbine model packages developed by Siemens PTI for PSS®E will be given to highlight the latest developments and increase awareness of model contents and availability. We will introduce the fundamentals of modeling wind power in the PSS®E analysis program. Hand-on examples of interconnection studies of wind farms employing different types of wind turbines will be used.

Provides the participant with an overview of the technical challenges and benefits of integrating large amounts of wind turbine generation into the power system, and of the power system studies that need to be conducted.  Topics include: technical considerations for integrating large amounts of wind turbine generation into the power system; wind turbine generation interconnection requirements, including low voltage ride through (LVRT), ramp rate limitations and supply of ancillary services for frequency and voltage control; wind turbine generator types and technical capabilities for participating in the active power and ancillary services markets; steady state and voltage stability impacts of integrating large amounts of wind turbine generation; dynamic studies required for the integration of wind turbine generation, including disturbance selection, stability results (angular and voltage) review and discussion of remedies; wind integration operational impacts; market impacts of wind integration; current practices and industry trends.

Focuses on LMP-based energy markets and financially-based transmission service. Provides participants with a thorough explanation of how locational marginal prices are determined. Topics include the effects of transmission congestion on locational prices, financial instruments to hedge congestion, transmission services, effect of market location on commercial decisions and the trading of energy. Example case studies include the assessment of generator and load revenues, price impacts of load level and system outages, the value of financial transmission rights, and the analysis of cost-effective solutions to transmission congestion. This course is designed for merchant developers, energy traders and marketers, policy makers, RTO participants and others interested in gaining an understanding of the evolution of competitive markets toward a Standard Market Design. This course is offered depending on demand. Please call the Siemens Power Academy for scheduling details at +1 (518) 395-5005. 

Introduces concepts in modeling and simulating the dynamic phenomena of power systems. Develops basic concepts for different forms of stability applied to performing dynamic simulations or interpreting results of system stability studies. This course includes both theory and practice for modeling main power system components, such as synchronous machines, excitation systems, governors and loads. Hands-on examples using PSS®E are included.

Covers economic dispatch, unit commitment, automatic generation control, operating security and interchange evaluation and power systems state estimation. Course includes hands-on examples using PSS®E. Designed for new operations engineers.

Provides an introduction to probability and statistical methods useful in planning and design functions through practical application to power system problems. Techniques for calculating reliability and availability of components are applied to generation, transmission and distribution system problems to determine overall system performance to be expected from various combinations of equipment. Problems involved in load forecasting and techniques of preparing load models are examined. The fundamental requirements for adequate service are also discussed.

Provides a comprehensive introduction to system protection. Topics include protection principles, physical and operating characteristics of protective devices and protective relaying applications for generation, transmission and distribution systems. This course will be valuable to engineers just entering the system protection field and to those seeking a better understanding of protective systems' impact on the power system network.

Provides a thorough analysis of dynamic stability problems and control analysis tools used for power system stabilizer (PSS) tuning. Theoretical and practical aspects of PSS commissioning and tuning are examined. Analyzes PSS input signals including electrical power, speed, frequency and accelerating power. Students will experience tuning a PSS and evaluating its performance using PSS®E.

Presents principal applications of modern power electronics in transmission systems. Includes HVDC technology (two-terminal and multi-terminal transmissions, back-to-back substations, light applications of HVDC and capacitor-commutated HVDC terminals), various FACTS devices (STATCOM, SCCC, UPFC, IPFC, SMES, BES, etc.) and alternative energy sources (with emphasis on wind power turbines and plants). Describes and analyzes controls and their impact on power systems and discusses their PSS®E modeling in load flow and dynamics simulations. Comprehensive hands-on examples are included to help students understand and apply these technologies in system planning and operational practice.

Presents dynamic analyses of generating units, their control systems and their interaction with the transmission network and loads. Helps engineers to understand dynamic modeling and interpret stability results by describing effective methodologies and simulation tools. Paul de Mello, course developer, shares his many years of experience in the field of power system performance and is recognized worldwide as an expert on the subject. This course is designed for engineers involved in operation, planning, design and protection of generation and transmission systems. This course is offered depending on demand. Please call the Siemens Power Academy for scheduling details at +1 (518) 395-5005.