Tuition Fee
USD 4,700
Per course
Start Date
Medium of studying
Fully Online
Duration
2 months
Program Facts
Program Details
Degree
Courses
Major
Electrical Engineering | Power Engineering | Power Systems Technology
Area of study
Engineering
Education type
Fully Online
Timing
Full time
Course Language
English
Tuition Fee
Average International Tuition Fee
USD 4,700
Intakes
| Program start date | Application deadline |
| 2024-04-01 | - |
| 2024-06-14 | - |
About Program
Program Overview
This UCLA program delves into the intricacies of smart grids, exploring strategies for demand response, transactive load control, and renewable energy integration. It covers advanced metering infrastructure, microgrids, grid stability, and consumer-centric technologies. The program emphasizes the use of sensors, communications, and computing for grid monitoring and control, preparing students for careers in the rapidly evolving field of smart grid technologies.
Program Outline
Outline:
- Demand response: Explores strategies to adjust electricity usage in response to grid conditions and price signals.
- Transactive/Price-based load control: Examines how pricing mechanisms can influence consumer electricity consumption patterns.
- Home-area network, smart energy profile: Covers the use of home energy management systems to monitor and control energy usage within a residential setting.
- Advanced metering infrastructure: Investigates the deployment of smart meters to provide real-time energy usage data for both utilities and consumers.
- Renewable energy integration: Assesses the challenges and opportunities associated with integrating renewable energy sources, such as solar and wind, into the grid.
- Solar and wind generation intermittency and correction: Explores the variability of renewable energy sources and methods to mitigate their impact on grid stability.
- Microgrids: Reviews the design, operation, and control of microgrids, which are self-contained electrical systems that can operate independently or in conjunction with the main grid.
- Grid stability: Emphasizes the importance of maintaining grid frequency and voltage within acceptable ranges to ensure reliable operation.
- Energy storage and electric vehicles-simulation: Examines the role of energy storage and electric vehicles in supporting grid stability and reducing carbon emissions.
- Monitoring: Discusses various methods for monitoring grid conditions, including sensors, data loggers, and communication systems.
- Distribution and transmission grids: Provides an overview of the different types of electrical grids, their functions, and the challenges associated with their operation.
- Consumer-centric technologies: Explores technologies that empower consumers to actively participate in the energy market, such as smart thermostats and mobile energy management apps.
- Sensors, communications, and computing: Covers the hardware and software components used for data acquisition, transmission, and processing in smart grids.
- Wireless, wireline, and powerline communications for smart grids: Examines various communication technologies used in smart grids, including cellular networks, fiber optics, and power line communication.
- Grid modeling, stability, and control: Uses mathematical models to analyze grid behavior under different conditions and design control systems to maintain stability.
- Frequency and voltage regulation: Explores techniques for regulating grid frequency and voltage to ensure reliable power delivery.
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About University
UCLA Extension
Overview:
UCLA Extension is a renowned continuing education institution affiliated with the University of California, Los Angeles (UCLA). It offers a wide range of courses, certificates, and specializations designed for professional development, career advancement, and personal enrichment.
Services Offered:
UCLA Extension provides a comprehensive suite of services for its students, including:
Courses:
Hundreds of open-enrollment courses are available in various fields of study, delivered online, in-person, or in a hybrid format.Certificates:
Students can earn certificates in specialized areas, demonstrating their expertise and enhancing their career prospects.Specializations:
Short series of courses designed to quickly equip students with in-demand skills and knowledge in focused areas.Student Services:
UCLA Extension offers comprehensive support services, including enrollment assistance, financial aid, scholarships, transcripts, career services, and international student support.Corporate Education:
Custom programs and corporate training solutions are available to meet the professional development needs of organizations.Student Life and Campus Experience:
Key Reasons to Study There:
UCLA Affiliation:
Students benefit from the prestige and reputation of UCLA, a world-class research university.Industry Experts:
Courses are taught by experienced professionals and industry leaders, providing practical and relevant knowledge.Flexible Learning:
UCLA Extension offers a variety of learning formats, including online, in-person, and hybrid options, catering to diverse schedules and preferences.Career Advancement:
Certificates and specializations can enhance career prospects and open doors to new opportunities.Personal Enrichment:
Courses and programs cater to personal interests and provide opportunities for lifelong learning.Academic Programs:
UCLA Extension offers a wide range of academic programs across various fields, including:
Accounting & Finance
Architecture & Interior Design
Business & Management
Communications
Design & Arts
Digital Technology
Education
Engineering
Entertainment
Environmental Studies & Public Policy
Health Care & Counseling
Humanities & Social Sciences
Landscape Architecture & Horticulture
Legal Programs
Real Estate
Sciences & Math
Writing
Other:
UCLA Extension is accredited by the Western Association of Schools and Colleges (WASC), ensuring the quality and rigor of its programs.
Total programs
1698
Admission Requirements
Outline:
- Demand response: Explores strategies to adjust electricity usage in response to grid conditions and price signals.
- Transactive/Price-based load control: Examines how pricing mechanisms can influence consumer electricity consumption patterns.
- Home-area network, smart energy profile: Covers the use of home energy management systems to monitor and control energy usage within a residential setting.
- Advanced metering infrastructure: Investigates the deployment of smart meters to provide real-time energy usage data for both utilities and consumers.
- Renewable energy integration: Assesses the challenges and opportunities associated with integrating renewable energy sources, such as solar and wind, into the grid.
- Solar and wind generation intermittency and correction: Explores the variability of renewable energy sources and methods to mitigate their impact on grid stability.
- Microgrids: Reviews the design, operation, and control of microgrids, which are self-contained electrical systems that can operate independently or in conjunction with the main grid.
- Grid stability: Emphasizes the importance of maintaining grid frequency and voltage within acceptable ranges to ensure reliable operation.
- Energy storage and electric vehicles-simulation: Examines the role of energy storage and electric vehicles in supporting grid stability and reducing carbon emissions.
- Monitoring: Discusses various methods for monitoring grid conditions, including sensors, data loggers, and communication systems.
- Distribution and transmission grids: Provides an overview of the different types of electrical grids, their functions, and the challenges associated with their operation.
- Consumer-centric technologies: Explores technologies that empower consumers to actively participate in the energy market, such as smart thermostats and mobile energy management apps.
- Sensors, communications, and computing: Covers the hardware and software components used for data acquisition, transmission, and processing in smart grids.
- Wireless, wireline, and powerline communications for smart grids: Examines various communication technologies used in smart grids, including cellular networks, fiber optics, and power line communication.
- Grid modeling, stability, and control: Uses mathematical models to analyze grid behavior under different conditions and design control systems to maintain stability.
- Frequency and voltage regulation: Explores techniques for regulating grid frequency and voltage to ensure reliable power delivery.
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