SUN500G3-EU-230 - Solar installation Deye - Free user manual and instructions

Product Type	Solar Microinverter
Model	SUN500G3-EU-230
Brand	Deye
Rated Output Power	500 W
Nominal AC Voltage	230 V
Grid Type	Single-phase
MPPT Voltage Range	22 V - 50 V
Maximum Input Current	13.5 A
Maximum Output Current	2.2 A
Maximum Efficiency	96.5%
Dimensions (W x H x D)	280 x 200 x 42 mm
Weight	2.5 kg
Enclosure Rating	IP67
Cooling Method	Natural Convection
Operating Temperature	-40°C to +65°C
Safety Features	Overvoltage, Overcurrent, Anti-Islanding, Ground Fault Protection
Communication	Wi-Fi / Zigbee (optional)
Compliance	VDE-AR-N 4105, EN 50549, IEC 62109
Warranty	12 years standard
Maintenance	Keep clean with dry cloth; no water or solvents
Spare Parts Availability	Contact authorized dealer for replacement parts

Frequently Asked Questions - SUN500G3-EU-230 Deye

What is the maximum number of solar panels I can connect to the SUN500G3-EU-230?

Each SUN500G3-EU-230 is designed for a single solar panel. For multiple panels, use multiple microinverters.

Is the Deye SUN500G3-EU-230 compatible with all solar panels?

It works with most 60-cell and 72-cell poly or monocrystalline panels within the MPPT range (22V-50V). Check panel specs.

How do I monitor the performance of my microinverter?

Use the Deye monitoring platform via the optional Wi-Fi or Zigbee module. Accessible via smartphone app or web portal.

What is the installation process for the SUN500G3-EU-230?

Mount under the solar panel, connect DC cables from the panel, connect AC trunk cable, and configure monitoring. Detailed steps in the user manual.

Does the microinverter have built-in safety protections?

Yes, it includes overvoltage, overcurrent, anti-islanding, and ground fault protection, meeting international safety standards.

What is the expected lifespan of the Deye SUN500G3-EU-230?

Designed for 25+ years with a standard 12-year warranty, extendable. Lifespan depends on operating conditions.

Can I use this microinverter for off-grid systems?

No, it is a grid-tie inverter. It requires a grid connection to operate and cannot be used standalone.

What is the minimum and maximum operating temperature?

The SUN500G3-EU-230 operates from -40°C to +65°C, suitable for most climates.

How do I clean or maintain the microinverter?

Keep the enclosure clean using a dry cloth. Do not use water, solvents, or abrasive cleaners. Check connections periodically.

Where can I find spare parts or service for my microinverter?

Contact your authorized Deye dealer or service center. The manual includes contact information and spare part codes.

USER MANUAL SUN500G3-EU-230 Deye

Installation/UserManual

Photovoltaic Grid-connected Microinverter(Built-in WIFI-G3)

Abstract curved lines forming concentric arcs (no text or symbols)

Ver:1.2, 2020-10

502011646

Table of Contents

Important Safety Instructions 01-03

Safety Instructions

Radio Interference Statement

The Meaning of Symbols

Microinverter System Introduction 03-05

Microinverters Maximize PV Energy Production

More Reliable than Centralized or String Inverters

Simple to Install

Microinverter Introduction 05

Microinverter System Installation 06-09

Additional Installation Components

Required Parts and Tools from You

Installation Procedures

Microinverter System Operating Instructions 09-10

Troubleshooting 10-12

Status Indications and Error Reporting

Troubleshooting a Non-operating Microinverter

Replacement 13

Technical Data 14-16

300/500/600/800/1000G3 Microinverter Datasheet

1300/1600/2000G3 Microinverter Datasheet

Wiring Diagram 17-20

Monitoring Platform 21

Important Safety Instructions

This manual contains important instructions to follow during installation and maintenance of the Photovoltaic Grid-connected Inverter(Microinverter). To reduce the risk of electrical shock and ensure the safe installation and operation of the Microinverter, the following symbols appear throughout this document to indicate dangerous conditions and important safety instructions.

Specifications subject to change without notice - please ensure you are using the latest manual found at the manufacturer website.

WARNING: This indicates a situation where failure to follow instructions may cause a serious hardware failure or personnel danger if not applied appropriately. Use extreme caution when performing this task.

NOTE: This indicates information that is important for optimized microinverter operation. Follow these instructions strictly.

Safety Instructions

√ DO NOT disconnect the PV module from the Microinverter without disconnecting the AC power.
√ Only qualified professionals should install and/or replace the Microinverters.
√ Perform all electrical installations in accordance with local electrical codes.
√ Before installing or using the Microinverter, please read all instructions and cautionary markings in the technical documents and on the Microinverter system and the solar-array.
√ Be aware that the body of the Microinverter is the heat sink and can reach a temperature of 80^ C. To reduce risk of burns, do not touch the body of the Microinverter.
√ DO NOT attempt to repair the Microinverter. If it fails, contact technical support to obtain an RMA number and start the replacement process. Damaging or opening the Microinverter will void the warranty.
√ Caution!
The external protective earthing conductor is connected to the inverter protective earthing terminal through AC connector.
When connecting, connect the AC connector first to ensure the inverter earthing then do the DC connections.
When disconnecting, disconnect the AC by opening the branch circuit breaker first

but maintain the protective earthing conductor in the branch circuit breaker connect to the inverter, then disconnect the DC inputs.

√ In any circumstance, do not connect DC input when AC connector is unplugged.
√ Please install isolation switching devices on the AC side of the inverter.

Radio Interference Statement

CE EMC Compliance: The equipment can comply with CE EMC, which are designed to protect against harmful interference in a residential installation. The equipment could radiate radio frequency energy and this might cause harmful interference to radio communications if not following the instructions when installing and using the equipment. But there is no guarantee that interference will not occur in a particular installation. If this equipment causes harmful interference to radio or television reception, the following measures might resolve the issues:

A) Relocate the receiving antenna and keep it well away from the equipment.
B) Consult the dealer or an experienced radio / TV technical for help.

Changes or modifications not expressly approved by the party responsible for compliance may void the user's authority to operate the equipment.

The Meaning of Symbols

Can be OEM Trademark.
	Caution, risk of electric shock.
	Caution, risk of burn - Do not touch.
	Caution, hot surface.
	Symbol for the marking of electrical and electronics devices according to Directive 2002/96/EC. Indicates that the device, accessories and the packaging must not be disposed as unsorted municipal waste and must be collected separately at the end of the usage. Please follow Local Ordinances or Regulations for disposal or contact an authorized representative of the manufacturer for information concerning the decommissioning of equipment.CE mark is attached to the solar inverter to verify that the unit follows the provisions of the European Low Voltage and EMC Directives.
	Refer to the operating instructions.
Qualified personnel	Person adequately advised or supervised by an electrically skilled person to enable him or her to perceive risks and to avoid hazards which electricity can create. For the purpose of the safety information of this manual, a "qualified person" is someone who is familiar with requirements for safety, refrigeration system and EMC and is authorized to energize,ground, and tag equipment, systems, and circuits in accordance with established safety procedures. The inverter and endues system may only be commissioned and operated by qualified personnel.

Microinverter System Introduction

The Microinverter is used in utility-interactive grid-tied applications, comprised of two key elements:

• Microinverter
• Router

300 / 500 / 600 / 800 / 1000G3

graph TD
    A["PV Module"] --> B["Microinverter"]
    B --> C["Distribution Box"]
    C --> D["Meter"]
    D --> E["Neutral Ground"]
    F["WIFI Boost"] --> G["Router"]
    G --> H["Global"]
    H --> I["Monitoring system"]
    I --> J["Monitor System"]
    style A fill:#f9f,stroke:#333
    style B fill:#f9f,stroke:#333
    style C fill:#ccf,stroke:#333
    style D fill:#cfc,stroke:#333
    style E fill:#fcc,stroke:#333
    style F fill:#ffc,stroke:#333
    style G fill:#cfc,stroke:#333
    style H fill:#fcc,stroke:#333
    style I fill:#cfc,stroke:#333
    style J fill:#fcc,stroke:#333

1300 / 1600 / 1800 / 2000G3

graph TD
    A["PV Module"] --> B["Microinverter"]
    B --> C["Distribution Box"]
    C --> D["Meter"]
    D --> E["Neutral Ground"]
    E --> F["Monitoring system"]
    F --> G["Router"]
    G --> H["WIFI Boost"]
    H --> A

NOTE: If the wireless signal in the area where the microinverter is weak is weak, it is necessary to add a wifi signal booster at a suitable place between the router and the microinverter.

This integrated system improves safety; maximizes solar energy harvest; increases system reliability, and simplifies solar system design, installation, maintenance, and management.

Microinverters Maximize PV Energy Production

Each PV module has individual Maximum Peak Power Tracking (MPPT) controls, which ensures that the maximum power is exported to the utility grid regardless of the performance of the other PV modules in the array. When PV modules in the array are affected by shade, dust, orientation, or any situation in which one module underperforms compared with the other units, the Microinverter ensures top performance from the array by maximizing the performance of each module within the array.

More Reliable than Centralized or String Inverters

The distributed Microinverter system ensures that no single point of system failure exists across the PV system. Microinverters are designed to operate at full power at ambient outdoor temperatures of up to 149 F (65°C). The inverter housing is designed for outdoor installation and complies with the IP65 environmental enclosure rating.

Simple to Install

You can install individual PV modules in any combination of Module quantity, orientation, different type and power rate The Ground wire (PE) of the AC cable is connected to the chassis inside of the Microinverter, potentially eliminating the installation of grounding wire (check local regulation).

Data collection adopts internal wifi, wireless router is needed near the microinverter. When complete the installation of microinverter, configure wireless router with internal wifi (refer to the wifi user manual). The data will be uploaded automatically. Users can monitor and manage the microinverter through corresponding website or APP.

Microinverter Introduction

The Microinverters connect with the single-phase grid, and can also use multiple Microinverters in the form of single-phase grid to achieve three-phase grid.

For more information, please see the Technical Data page (P17\~20) of this manual.

Model Number	AC grid	Max. # Per branch
SUN300G3-EU-230 50/60Hz, 230V		17 for 25A breaker
SUN500G3-EU-230 50/60Hz, 230V 10 for 25A breaker
SUN600G3-EU-230 50/60Hz, 230V 8 for 25A breaker
SUN800G3-EU-230 50/60Hz, 230V 6 for 25A breaker
SUN1000G3-EU-230 50/60Hz, 230V		5 for 25A breaker
SUN1300G3-EU-230 50/60Hz, 230V 4 for 25A breaker
SUN1600G3-EU-230 50/60Hz, 230V 4 for 45A breaker
SUN1800G3-EU-230 50/60Hz, 230V 3 for 45A breaker
SUN2000G3-EU-230 50/60Hz, 230V 3 for 45A breaker

Microinverter System Installation

A PV system using Microinverters is simple to install. Each Microinverter easily mounts on the PV racking, directly beneath the PV module(s). Low voltage DC wires connect from the PV module directly to the Microinverter, eliminating the risk of high DC voltage. Installation MUST comply with local regulations and technical rules.

Special Statement! An AC GFCI device should not be used to protect the dedicated circuit to the microinverter even though it is an outside circuit. None of the small GFCI devices (5\~30mA) are designed for back feeding and will be damaged if back feed. In a similar manner, AC AFCIs have not been evaluated for back feeding and may be damaged if back feed with the output of a PV inverter.

WARNING: Perform all electrical installations in accordance with local electrical codes.

WARNING: Be aware that only qualified professionals should install and/or replace Microinverters.

WARNING: Before installing or using an Microinverter, please read all instructions and warnings in the technical documents and on the Microinverter system itself as well as on the PV array.

WARNING: Be aware that installation of this equipment includes the risk of electric shock.

WARNING: Do not touch any live parts in the system, including the PV array, when the system has been connected to the electrical grid.

NOTE: Strongly recommend to install Surge protection Devices in the dedicated meter box.

Additional Installation components

• AC Male and Female Interconnection Connectors (sold separately)
• Sealing end caps(sold separately)

Required Parts and Tools from you

In addition to your PV array and its associated hardware, you will need the following items:

• An AC connection junction box
- Mounting hardware suitable for module racking
- Sockets and wrenches for mounting hardware
• Continuous grounding conductor and grounding washers
• A Phillips screwdriver
• A torque wrench

Installation Procedures

Step 1 - Install the AC branch circuit junction box

Technical line drawing of a mechanical device with mounting brackets and a central housing (no text or symbols)

Technical line drawing of a mechanical assembly with mounting brackets and cylindrical components (no text or symbols)

a. Install an appropriate junction box at a suitable location on the PV racking system (typically at the end of a branch of modules).
b. Connect the open wire end of the AC cable into the junction box using an appropriate gland or strain relief fitting.
c. Wire the conductors of the AC(230/400Vac): L - red; N - black ;PE - yellow green.
d. Connect the AC branch circuit junction box to the point of utility Interconnection.

WARNING: Wiring colour code can be different according local regulation, check all the wires of the installation before connecting to the AC cable to be sure they match. Wrong cabling can damage irreparably the microinverters, such an issue is not covered by the warranty.

Step 2 - Attach the Microinverters to the racking or the PV module frame

a. Mark the location of the Microinverter on the rack, with respect to the PV module junction box or any other obstructions.
b. Mount one Microinverter at each of these locations using hardware recommended by your module racking vendor.

Pure electrical circuit lines without any symbols

300 / 500G3 (1MPPT) 600 / 800 / 1000G3 (2MPPT) Mounting

1300 / 1600 / 2000G3 (4MPPT) Mounting

WARNING: Prior to installing any of the microinverters, verify that the utility voltage at the point of common connection matches the voltage rating on microinverter label.

WARNING: Do not place the inverters (including DC and AC connectors) where exposed to the sun, rain or snow, even gap between modules. Allow a minimum of 3/4 (1.5cm.) between the roof and the bottom of the Microinverter to allow proper air flow.

Step 3 - Connect the microinverters in parallel

Pure electrical circuit lines without any symbols

300/500G (1MPPT)

600/800/1000G3 (2MPPT)

connect in parallel

Close-up of a solar panel with visible internal components and wiring (no text or symbols)

1300/1600/2000G3 (4MPPT)

connect in parallel

a. Check the Microinverter technical data page 5 for the maximum allowable number of Microinverters on each AC branch circuit.

b. Plug the male AC connector of the Microinverter into the female connector to get it connected. AC connector interface as follows.

WARNING: DO NOT exceed maximum number of Microinverters in an AC branch circuit, as displayed on the page 5 of this manual.

Step 4 - Install an AC cable protective end cap at the end of AC cable

Step 5 - Connect Microinverter to the PV Modules

Technical line drawing of a mechanical assembly with no visible text or symbols

Technical line drawings of four different mechanical or electronic component assemblies (no text or symbols)

NOTE: When plugging in the DC cables, if AC already available, the Microinverter should immediately blink red light and will start work within the setting time (default 60 seconds). If AC is not available, the red light will blink 3 times quickly and repeat after one second until AC is connected.

Microinverter System Operating Instructions

To operate the microinverter PV system:

1. Turn ON the AC circuit breaker on each microinverter AC branch circuit.

2. Turn ON the main utility-grid AC circuit breaker. Your system will start producing power after a one-minute waiting time.

3. The units should start blinking red one minutes after turning on the AC circuit breaker. Then blue led blinking. This means they are producing power normally, the faster blinking of the blue led means more power generated.

4. Configure the internal wifi module according to its user manual.
5. The Microinverters will start to send performance data over wifi module to the network every 5 minutes. It enables customers to monitor performance data of each microinverter through website and APP.

NOTE: When AC power is applied but the microinverter not started up, about 0.1A current and 25VA(W) power for each microinverter may be measured by a power meter. This power is reactive power, not consume from utility grid.

Troubleshooting

Qualified personnel can use the following troubleshooting steps if the PV system does not operate correctly:

Status Indications and Error Reporting

Start up LED

One minute after DC power is first applied to the microinverter, one short red blinks indicate a successful microinverter startup sequence, be equal or greater than two short red blinks after DC power is first applied to the microinverter indicate a failure during microinverter setup.

Operation LED

Flashing Slow Blue - Producing small power Flashing Fast Blue - Producing big power Flashing Red - Not producing power Red blinking two times - AC low-voltage or high-voltage Red blinking three times - Grid failure

GFDI Error

A four time red LED indicates the Microinverter has detected a Ground Fault Detector Interrupter (GFDI) error in the PV system. Unless the GFDI error has been cleared, the LED will remain four times blinking.

Other Faults

All other faults can be reported to the website and APP.

WARNING: Never disconnect the DC wire connectors under load. Ensure that no current is flowing in the DC wires prior to disconnecting. An opaque covering may be used to cover the module prior to disconnecting the module.

Troubleshooting a non-operating Microinverter

There are two possible overall areas of trouble:

A. The Microinverter itself may be having problems.
B. The Microinverter itself is working fine but the communication between microinverter and network has problem. The items below refer to Microinverter issues, not communicat-ion issues:

One quick way to tell whether the issue is the Microinverter or the communication problem:

1. Diagnosing from the Microinverter: A red light - either blinking or solid on the Microinverter, or no light at all means it is definitely the Microinverter problem.

2. 0 watts, or 2 watts: Possibly a Microinverter problem

3. Diagnosing from the network:

a. No-Data-Display: The website and APP don't display any data. Check the network configuration.
b. Only display microinverter is online but no data. This may be because server is updating.

To troubleshoot a non-operating Microinverter, Follow the steps below in order:

1. Verify the utility voltage and frequency are within ranges shown in the Technical Data section of this manual.
2. Check the connection to the utility grid.Disconnect AC firstly,then disconnect DC and make sure the utility grid voltage can be measured at AC connector. Never disconnect the DC wires while the microinverter is producing power. Re-connect the DC module connectors and watch for three short LED flashes.
3. Check the AC branch circuit interconnection between all the microinverters. Verify each inverter is energized by the utility grid as described in the previous step.
4. Make sure that any AC breaker are functioning properly and are closed.
5. Check the DC connections between the microinverter and the PV module.
6. Verify the PV module DC voltage is within the allowable range shown in the Technical Data of this manual.
7. If the problem still persists, please contact technical support.

WARNING: Do not attempt to repair the microinverter. If troubleshooting methods fail, please call for Technical Support

Replacement

Follow the procedure to replace a failed Microinverter

A. Disconnect the Microinverter from the PV Module, in the order shown below:

1. Disconnect the AC by turning off the branch circuit breaker.
2. Disconnect the AC connector of the microinverter.
3. Cover the module with an opaque cover.
4. Disconnect the PV module DC wire connectors from the Microinverter.
5. Remove the Microinverter from the PV array racking.

B. Remove the opaque cover, Install a replaced Microinverter to the bracket.

Remember to observe the flashing LED light as soon as the new Microinverter is plugged into the DC cables.

C. Connect the AC cable of the replacement Microinverter.

Technical Data

WARNING: Be sure to verify the voltage and current specifications of your PV module match with those of the Microinverter. Please refer to the datasheet or user manual.

WARNING: You must match the DC operating voltage range of the PV module with the allowable input voltage range of the Microinverter.

WARNING: The maximum open circuit voltage of the PV module must not exceed the specified maximum input voltage of the inverter.

300G3/500G3/600G3 Microinverter Datasheet

Model	SUN300G3-EU-230	SUN500G3-EU-230	SUN600G3-EU-230
Input Data (DC)
Recommended input power(STC)	210~600W	210~400W	210~400W
Maximum input DC voltage 60V
MPPT Voltage Range	25~55V
Operating DC Voltage Range	20~60V
Max DC short circuit current	16A16A 16A
Max input current	10.5A×1 12.5A×1 10.5A×2
Output Data (AC)
Rated output Power	300W	500W	600W
Maximum output power	330W	550W	660W
Maximum output Current	2.4A1.4A 2.9A
Nominal voltage / range	230V / 184-265V
Nominal frequency	50/60Hz
Extended frequency / range	45~55Hz/ 55~65Hz
Power factor	>0.99
Maximum unit per branch	17 10	8
Max. allowed altitude operating	<4000m
Max.inverter backfeed current to the array	0A
Max output fault current	10A
Max output overcurrent protection	1.4A 2.4A 2.9A
Efficiency
CEC weighted efficiency	95%
Peak inverter efficiency	96.5%
Static MPPT efficiency	99%
Night time power consumption	50mW
Mechanical Data
Ambient temperature range	-40 °C ~ +65 °C
Dimensions(W×H×D mm)	212×229×40 mm (Does not include cable)
Weight (kg)	3.5
Cooling	Natural Convection - No Fans
Enclosure environmental rating	IP67
Protective class	Class I
Features
Compatibility	Compatible with 60,72 cell PV modules
Communication	Power line / WiFi / Zigbee
Compliance	EN50549,VDE0126,VDE4105,IEC62109,CE,INMETRO
Warranty	10 Years

800G3/1000G3 Microinverter Datasheet

Model	SUN800G3-EU-230	SUN1000G3-EU-230
Input Data (DC)
Recommended input power(STC) 210~600W
Maximum input DC voltage 60V
MPPT Voltage Range	25~55V
Operating DC Voltage Range	20~60V
Max DC short circuit current	16A
Max input current	12.5A×2
Output Data (AC)
Rated output Power	1000W800W
Maximum output power	880W	1100W
Maximum output Current	3.8A 4.8A
Nominal voltage / range	230V / 184-265V
Nominal frequency	50/60Hz
Extended frequency / range	45~55Hz/ 55~65Hz
Power factor	>0.99
Maximum unit per branch	6	5
Max. allowed altitude operating	<4000m
Max.inverter backfeed current to the array	0A
Max output fault current	10A
Max output overcurrent protection	3.8A 4.8A
Efficiency
CEC weighted efficiency	95%
Peak inverter efficiency	96.5%
Static MPPT efficiency	99%
Night time power consumption	50mW
Mechanical Data
Ambient temperature range	-40 °C ~ +65 °C
Dimensions(W×H×D mm)	212×229×40 mm (Does not include cable)
Weight (kg)	3.5
Cooling	Natural Convection - No Fans
Enclosure environmental rating	IP67
Protective class	Class I
Features
Compatibility	Compatible with 60,72 cell PV modules
Communication	Power line / WiFi / Zigbee
Compliance	EN50549,VDE0126,VDE4105,IEC62109,CE,INMETRO
Warranty	10 Years

1300G3/1600G3/1800G3/2000G3 Microinverter Datasheet

Model	SUN1300G3-EU-230	SUN1600G3-EU-230	SUN1800G3-EU-230	SUN2000G3-EU-230
Input Data (DC)
Recommended input power(STC)	210~600W	210~600W	210~400W	210~600W
Maximum input DC voltage 60V
MPPT Voltage Range	25~55V
Operating DC Voltage Range	20~60V
Max DC short circuit current	16A
Max input current	12.5A×4	12.5A	12.5A×4
Output Data (AC)
Rated output Power	1600W	1300W	1800W	2000W
Maximum output power	1430W	1760W	1980W	2200W
Maximum output Current	6.2A	7.7A	9.6A	8.6A
Nominal voltage / range	230V / 184-265V
Nominal frequency	50/60Hz
Extended frequency / range	45~55Hz/ 55~65Hz
Power factor	>0.99
Maximum unit per branch	4 4 33
Max. allowed altitude operating	<4000m
Max.inverter backfeed current to the array	0A
Max output fault current	10A
Max output overcurrent protection	6.2A	7.7A	9.6A	8.6A
Efficiency
CEC weighted efficiency	95%
Peak inverter efficiency	96.5%
Static MPPT efficiency	99%
Night time power consumption	50mW
Mechanical Data
Ambient temperature range	-40 °C ~ +65 °C
Dimensions(W×H×D mm)	267×300×42.5 mm (Does not include cable)
Weight (kg)	5.2
Cooling	Natural Convection - No Fans
Enclosure environmental rating	IP67
Protective class	Class I
Features
Compatibility	Compatible with 60,72 cell PV modules
Communication	Power line / WiFi / Zigbee
Compliance	EN50549,VDE0126,VDE4105,IEC62109,CE,INMETRO
Warranty	10 Years

Wiring Diagram

Sample Wiring Diagram Three Phase

graph TD
    A["meter"] --> B["300/500G3 (1MPPT)"]
    A --> C["600/800/1000G3 (2MPPT)"]
    B --> D["Network"]
    C --> D
    D --> E["Router"]
    D --> F["Monitoring system"]
    style A fill:#f9f,stroke:#333
    style B fill:#ccf,stroke:#333
    style C fill:#ccf,stroke:#333
    style D fill:#cfc,stroke:#333
    style E fill:#fcc,stroke:#333
    style F fill:#fcc,stroke:#333
    subgraph Network
        G["Network"]
        H["300/500G3 (1MPPT)"]
        I["600/800/1000G3 (2MPPT)"]
    end
    J["Ground"] --> K["WIFI Boost"]
    L["Router"] --> M["Monitor system"]
    N["Monitoring system"] --> M
    style J fill:#fff,stroke:#333
    style K fill:#fff,stroke:#333
    style M fill:#fff,stroke:#333
    note right of J "meter"
        MAX 17 SUN300G3-EU-230 per Branch
        MAX 10 SUN500G3-EU-230 per Branch
        MAX 8 SUN600G3-EU-230 per Branch
        MAX 6 SUN800G3-EU-230 per Branch
        MAX 5 SUN1000G3-EU-230 per Branch
    end

Sample Wiring Diagram Single Phase

graph TD
    A["meter"] --> B["300/500G3 (1MPPT)"]
    A --> C["600/800/1000G3 (2MPPT)"]
    B --> D["Network"]
    C --> D
    D --> E["Router"]
    D --> F["Monitoring system"]
    E --> G["WIFI Boost"]
    F --> G
    style A fill:#f9f,stroke:#333
    style B fill:#ccf,stroke:#333
    style C fill:#ccf,stroke:#333
    style D fill:#cfc,stroke:#333
    style E fill:#fcc,stroke:#333
    style F fill:#fcc,stroke:#333
    style G fill:#ffc,stroke:#333

Sample Wiring Diagram Three Phase

graph TD
    A["meter"] --> B["RED L"]
    A --> C["BLACK N"]
    A --> D["YELLOW PE"]
    A --> E["JUNCTION BOX"]
    B --> F["Network Diagram"]
    C --> F
    D --> F
    E --> F
    F --> G["Grid of Sensors"]
    G --> H["WIFI Boost"]
    G --> I["Router"]
    G --> J["Monitoring System"]
    H --> K["SUN1300G3-"]
    I --> L["SUN1600G3-"]
    J --> M["SUN1800G3-"]
    K --> N["SUN2000G3-"]
    L --> N
    M --> N
    style A fill:#f9f,stroke:#333
    style B fill:#ccf,stroke:#333
    style C fill:#ccf,stroke:#333
    style D fill:#ccf,stroke:#333
    style E fill:#ccf,stroke:#333
    style F fill:#cfc,stroke:#333
    style G fill:#fcc,stroke:#333
    style H fill:#ffc,stroke:#333
    style I fill:#ffc,stroke:#333
    style J fill:#ffc,stroke:#333
    style K fill:#cfc,stroke:#333
    style L fill:#cfc,stroke:#333
    style M fill:#cfc,stroke:#333
    style N fill:#cfc,stroke:#333

Sample Wiring Diagram Single Phase

graph TD
    A["meter"] --> B["RED L"]
    A --> C["BLACK N"]
    A --> D["YELLOW PE"]
    A --> E["JUNCTION BOX"]
    B --> F["Network Diagram"]
    C --> F
    D --> F
    E --> F
    F --> G["Network Diagram with Sensors"]
    G --> H["Monitoring System"]
    H --> I["WIFI Boost"]
    H --> J["Router"]
    H --> K["MAX 4 SUN1300G3-"]
    H --> L["MAX 3 SUN1600G3-"]
    H --> M["MAX 2 SUN1800G3-"]
    H --> N["MAX 2 SUN2000G3-"]

Monitoring Platform

This series microinverter has built-in WIFI modular which is able to connect router directly. For WIFI configuration, please check the manual of “Built-in WIFI modular microinverter WIFI configuration Manual”

Web monitoring address: https://pro.solarmanpv.com; (for Solarman distributor account)

https://home.solarmanpv.com (for Solarman end user account)

For mobile phone monitoring system, scan the QR code to download the APP. Also, you could find it by searching “solarman” in App store or Google Play.

IOS/Android system for plant owner account

IOS/Android system for distributor account