Fully online technical training designed around real industry demand, so you can specialize at your own pace.
10/31/2026
Start Date
1 month
Duration
100
Total Hours
6 Modules
Program
Duration
Total Hours
Program
Start Date
ICTESS’s Course in Low-Voltage PV Integration trains specialists in connecting and integrating behind-the-meter solar PV systems into low-voltage utility grids. The program covers the technical and code requirements that ensure a safe, compliant connection: overcurrent protection, conductor sizing, and metering configuration.
You’ll learn the integration calculations used on real projects: voltage drop across DC and AC circuits, conductor sizing based on current and circuit length, bidirectional (net) metering setup, zero-export configurations using export limiters, and protection coordination with existing service equipment. The course includes a Capstone Project where you apply everything to a complete low-voltage PV integration design.
The growth of behind-the-meter solar has created steady demand for professionals who can manage the technical integration of these systems into existing utility grids. Interconnecting utilities and AHJs require strict compliance with grid-connection standards and adequate protection to keep the grid and end users safe.
The training covers NEC Articles 690 and 705, IEEE 1547, UL 1741, and the integration procedures used by utilities nationwide. The program concludes with a Capstone Project applying every technical skill covered in the modules.
This course qualifies you for specialized roles at solar installation companies, engineering firms, utility integration departments, and as an independent contractor specializing in solar permitting. You can work as an electrical integration technician, integration project lead, or PV system inspector.
The training prepares you to manage the full technical process: performing voltage drop calculations and conductor sizing, designing a protection scheme that meets utility requirements, configuring bidirectional metering, implementing zero-export solutions with export limiters, and running the verification tests required before energization.
You’ll also gain the skills to submit integration applications to utilities, prepare technical documentation for permitting, and confirm installations meet the requirements for AHJ inspection and final sign-off. The hands-on approach lets you apply what you learn directly to real projects.
Study from anywhere with no commuting required. Balance your specialization with your current job.
Organize your studies around your own schedule. Move through the modules at your own pace and revisit anything you need extra practice on.
Learn with content aligned to the NEC (NFPA 70), IEEE 1547, UL 1741, and current utility integration procedures.
Technical video lessons, regularly updated downloadable materials, forums staffed by specialized instructors, and hands-on calculation exercises.
With ICTESS, you get specialized technical training focused on professional practice, designed to help you master the integration skills the behind-the-meter solar industry demands, using an up-to-date methodology and real integration case studies.
What you'll achieve
Apply integration codes (NEC 690, NEC 705, IEEE 1547) and the specific procedures utilities use for behind-the-meter and shared solar integration.
Calculate voltage drop across DC and AC circuit sections, and size conductors based on current, length, and installation method under the NEC.
Design bidirectional (net) metering configurations and implement zero-export solutions using dynamic export limiters.
Select and coordinate protective devices (breakers, GFCI/AFCI, SPDs) to ensure selective coordination with existing service equipment and compliance with utility requirements.
Perform the tests required before energization: continuity, insulation resistance, phase sequence, and anti-islanding protection verification.
Behind-the-meter solar has expanded rapidly, creating steady demand for professionals who can manage the technical integration of systems into low-voltage grids while meeting the increasingly strict requirements set by utilities and AHJs.
Stricter integration requirements: Utilities have tightened connection and verification procedures for behind-the-meter solar. Rejections due to noncompliance (inadequate protection, undersized conductors, missing anti-islanding protection) cause costly delays and hurt customer trust. Professionals who understand these requirements bring real value to installation companies.
Growing system complexity: Shared solar, zero-export configurations, and battery-paired systems all require specialized integration knowledge beyond basic sizing. Companies need technicians who can design bidirectional metering, configure export limiters, and coordinate protection across complex layouts.
Standing out in a competitive market: The solar industry has no shortage of installers, but specialists in electrical integration and permitting remain scarce. Mastering integration calculations, applicable codes, and utility procedures positions you as the go-to professional for projects that demand technical rigor and efficient permitting.
Mastery of integration codes: You’ll gain in-depth knowledge of NEC Articles 690 and 705, IEEE 1547, UL 1741, and the procedures used by utilities such as PG&E, Duke Energy, and Con Edison. This lets you manage integration applications with confidence and resolve issues that commonly delay energization.
Specific electrical calculation skills: You’ll master the voltage drop, conductor sizing, and protection coordination calculations required in permit submittal packages. These skills set you apart from general installers and let you take on electrical design responsibilities.
Ability to solve integration challenges: Learn to implement solutions for complex cases: zero export with dynamic limiters, shared solar with allocation of exported energy, and protection coordination across multiple strings. This makes you the go-to technical resource for integration questions.
Recognized professional certificate: ICTESS’s certificate validates your specialization in low-voltage PV integration, strengthening your position in the job market with installation companies and utilities.
This course is designed for technical professionals looking to specialize in the electrical integration and permitting of self-consumption photovoltaic systems on low voltage networks. Recommended profiles include:
Program details
The Capstone Project is the culminating stage of the program, integrating every technical skill developed throughout the course. It consists of designing the complete electrical integration of a low-voltage PV system, from analyzing the existing service equipment through preparing the documentation needed for permitting, using the calculation methods and code requirements used across the industry.
The project includes analyzing the existing electrical system (contracted service capacity, protective devices, conductor sizes), calculating voltage drop across every DC and AC circuit, sizing conductors under the NEC, designing a protection scheme with selective coordination relative to existing service equipment, configuring bidirectional metering for the applicable net metering arrangement, and implementing zero export if the project requires it.
It also includes preparing the complete one-line diagram for the integrated system, the testing and verification protocol required before energization, and the technical documentation for submittal to the interconnecting utility. The final documentation should meet the technical level and professional format expected of permit submittal packages, showing your ability to produce documentation suitable for submission to utilities, AHJs, or other regulatory bodies.
ICTESS’s Course in Low-Voltage PV Integration gives you hands-on training in every code that matters for behind-the-meter integration: NEC Article 690, which governs PV systems, NEC Article 705, which covers interconnected power sources, plus IEEE 1547 and UL 1741, the standards for grid-interactive equipment. You’ll also learn the integration procedures major US utilities (PG&E, Duke Energy, Con Edison, Xcel Energy) use for connection applications, point-of-connection requirements, and permitting documentation. This up-to-date knowledge lets you handle integration applications with confidence and resolve the issues that typically hold up energization.
You don’t need an electrical license to take this course, though a working knowledge of electrical fundamentals and the NEC is recommended. The program is designed both for licensed electricians who want to specialize in solar integration and for engineers, designers, and technicians who need to master integration calculations and permitting procedures. Keep in mind that signing off on electrical permits and performing installation work in the US does require the appropriate state license, but integration design, calculations, and administrative permitting can be handled by professionals with a range of backgrounds. The course adds skills that complement whatever electrical background you already have.
ICTESS’s professional certificate validates your specialization in low-voltage PV integration and is recognized by companies in the industry as high-level supplementary training. While it isn’t an official academic degree and doesn’t replace the licenses required under the NEC, the certificate documents in-demand skills: mastery of integration codes, voltage drop and conductor sizing calculations, bidirectional metering design, and knowledge of utility procedures. Many installation companies value this training because it shows you’re current on net metering and integration requirements and can manage applications that often cause delays.
This course stands out because it focuses specifically on grid connection and electrical integration, not general PV system sizing. While most courses concentrate on designing the solar array itself (strings, inverters, racking), this program goes deep into what determines whether a project can actually be connected: voltage drop calculations under the NEC, conductor sizing for code compliance, protection coordination with existing service equipment, bidirectional metering configuration, zero-export implementation, and the specific procedures each utility uses. This specialized knowledge is what most solar installers are missing, and it’s exactly what causes rejected integration applications, permitting delays, and failed AHJ inspections.
