SUN-5K-SG02LP2-US-AM2 - Battery charger Deye - Free user manual and instructions

Product Type	Hybrid Inverter / Battery Charger with MPPT Solar Charger
Model	SUN-5K-SG02LP2-US-AM2
Brand	Deye
Battery Input Voltage Range	40-60 V
Max Battery Charging Current	120 A
Max Battery Discharging Current	120 A
PV Max Input Voltage	500 V
PV MPPT Voltage Range	125-500 V
Number of MPPT Trackers	2
AC Output Rated Power	5000 W
AC Output Voltage	120/240 V Split Phase (also supports 208V three-phase)
AC Output Frequency	60 Hz
Max Efficiency	97.60%
Dimensions (W×H×D)	420 × 670 × 233 mm
Weight	35.6 kg
Enclosure Rating	NEMA 3R / IP65
Operating Temperature Range	-40 to +60°C (derating above 45°C)
Cooling Method	Intelligent Air Cooling
Warranty	5 or 10 years depending on installation site
Standard Compliance	UL 1741, IEEE 1547.1, FCC
Key Functions	Grid-tie, Off-grid, UPS, Zero export, Smart Load, Time of Use, Battery charging from PV/Grid/Generator
Safety Protections	Overload, Over temperature, Short circuit, Reverse polarity, Arc fault (optional), Ground fault, Island protection

Frequently Asked Questions - SUN-5K-SG02LP2-US-AM2 Deye

What battery types are compatible with the Deye SUN-5K-SG02LP2-US-AM2?

The inverter supports lead-acid (AGM, Gel, Flooded) and lithium-ion batteries. For lithium, the inverter communicates with the BMS for optimal charging parameters.

Can I operate the inverter without a battery?

Yes, select 'No Batt' in the battery settings. The inverter can then function as a grid-tied solar inverter, but backup power will not be available.

How do I set up zero export to the grid?

Enable 'Zero Export To CT' or 'Zero Export To Load' in the System Work Mode menu. For CT mode, connect the current transformers (CTs) as described in the manual. The inverter will adjust output to prevent feeding power to the grid.

What is the maximum PV input current per MPPT tracker?

Max operating current is 20 A per MPPT tracker, with a short-circuit current rating of 44 A per tracker.

How to connect a generator to this inverter?

Connect the generator to the GEN port using appropriate cable. Configure the generator settings in the 'Generator Port Use' menu. The inverter can automatically start the generator via the dry contact (G-start) when battery SOC is low.

What does error code F08 mean?

F08 indicates GFDI (Ground Fault Detector Interrupter) Relay Failure. In split-phase or three-phase systems, ensure the backup load N line is connected to ground. If the error persists, contact support.

How to update firmware on the inverter?

Firmware updates can be done via the WiFi or GPRS module using the Deye monitoring platform. Contact your installer or Deye support for the latest firmware file and update procedure.

What is the recommended battery capacity for this inverter?

The inverter can handle battery capacities from small to large (up to hundreds of Ah). Set the capacity in 'Batt Cap' under Battery Settings. For lead-acid, a common recommendation is 200-400 Ah at 48V.

Can I use the inverter in parallel with others?

Yes, the inverter supports parallel operation for split-phase or three-phase systems. Up to 3 units can be paralleled for increased power. Use the Parallel A/B ports and configure addresses in Advanced Functions.

How to clean and maintain the inverter?

Keep the inverter clean and free from dust. Use a soft dry cloth to wipe the enclosure. Check air vents regularly for blockages. Ensure proper clearance for cooling. Do not use water or solvents. For internal maintenance, contact qualified personnel.

USER MANUAL SUN-5K-SG02LP2-US-AM2 Deye

3.1 Parts list
3.2 Product handling requirements
3.3 Mounting instructions
3.4 Battery connection
3.5 Grid connection and backup load connection
3.6 PV Connection
3.7 CT Connection
3.7.1 Meter Connection
3.8 Earth Connection(mandatory)
3.9 WIFI Connection
3.10 Wiring System for Inverter
3.11 Typical application diagram of diesel generator
3.12 Split phase (120/240Vac) parallel connection diagram
3.13 pcs Parallel connection for 120/208 three phase
3.14 Parallel connection for 120/208 three phase

1. OPERATION 38

4.1 Power ON/OFF
4.2 Operation and Display Panel

1. LCD Display Icons 39-51

5.1 Main Screen
5.2 Solar Power Curve
5.3 Curve Page-Solar & Load & Grid
5.4 System Setup Menu
5.5 Basic Setup Menu
5.6 Battery Setup Menu
5.7 System Work Mode Setup Menu
5.8 Grid Setup Menu
5.9 Generator Port Use Setup Menu
5.10 Advanced Function Setup Menu
5.11 Device Info Setup Menu

1. Mode 51-53
2. Fault information and processing 53-56
3. Limitation of Liability 56
4. Datasheet 57-58
5. Appendix I 59-62
6. Appendix II 63......

About This Manual

The manual mainly describes the product information, guidelines for installation, operation and maintenance. The manual cannot include complete information about the photovoltaic (PV) system.

How to Use This Manual

Read the manual and other related documents before performing any operation on the inverter. Documents must be stored carefully and be available at all times.

Contents may be periodically updated or revised due to product development. The information in this manual is subject to change without notice. The latest manual can be acquired via [e-mail]

1. Safety Introductions

Labels description

Label	Description
	Caution, risk of electric shock symbol indicates important safety instructions, which if not correctly followed, could result in electric shock.
	The DC input terminals of the inverter must not be grounded.
	Surface high temperature, Please do not touch the inverter case.
	The AC and DC circuits must be disconnected separately, and the maintenance personnel must wait for 5 minutes before they are completely powered off before they can start working.
CE	CE mark of conformity
	Please read the instructions carefully before use.
	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.

• This chapter contains important safety and operating instructions. Read and keep this manual for future reference.
• Before using the inverter, please read the instructions and warning signs of the battery and corresponding sections in the instruction manual.
• Do not disassemble the inverter. If you need maintenance or repair, take it to a professional service center.
• Improper reassembly may result in electric shock or fire.
• To reduce risk of electric shock, disconnect all wires before attempting any maintenance or cleaning. Turning off the unit will not reduce this risk.
• Caution: Only qualified personnel can install this device with battery.
• Never charge a frozen battery.
• For optimum operation of this inverter, please follow required specification to select appropriate cable size. It is very important to correctly operate this inverter.
• Be very cautious when working with metal tools on or around batteries. Dropping a tool may cause a spark or short circuit in batteries or other electrical parts, even cause an explosion.
• Please strictly follow installation procedure when you want to disconnect AC or DC terminals. Please refer to "Installation" section of this manual for the details.
• Grounding instructions - this inverter should be connected to a permanent grounded wiring system. Be sure to comply with local requirements and regulation to install this inverter.
• Never cause AC output and DC input short circuited. Do not connect to the mains when DC input short circuits.

2. Product Introductions

This is a multifunctional inverter, combining functions of inverter, solar charger and battery charger to offer uninterruptible power support with portable size. Its comprehensive LCD display offers user configurable and easy accessible button operation such as battery charging, AC/solar charging, and acceptable input voltage based on different applications.

2.1 Product Overview

SUN-(5-8)K-SG02LP2-US-AM2

1: Inverter Indicators

2: LCD display

3: Function Buttons

4: DC Switch

5: Power on/off button

6: BMS 485 port

7: Battery input connectors

8: Function Port

9: Meter_CON port

10: Parallel port

11: DRM Port

12: PV input

13: Grid

14: Generator input

15: Load

16: WiFi Interface

SUN-(10-12)K-SG02LP2-US-AM3

1: Inverter Indicators
2: LCD display
3: Function Buttons
4: DC Switch
5: Power on/off button
6: BMS 485/CAN port

7: DRM Port
8: Battery input connectors
9: Function Port
10: Meter_CON port
11: Parallel port
12: PV input

13: Grid
14: Generator input
15: Load
16: WiFi Interface

2.2 Product Size

SUN-(5-8)K-SG02LP2-US-AM2

Technical line drawing of a rectangular electronic device with a circular component and mounting base, dimensioned in millimeters (no text or symbols)

Inverter Size

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Inverter Size

Technical line drawing of an electrical enclosure with mounting feet and wiring (no text or symbols)

Technical line drawing of a vertical industrial or electrical cabinet with fan and mounting base (no text or symbols)

2.3 Product Features

• Self-consumption and feed-in to the grid.
• Auto restart while AC is recovering.
• Programmable supply priority for battery or grid.
• Programmable multiple operation modes: On grid, off grid and UPS.
• Configurable battery charging current/voltage based on applications by LCD setting.
• Configurable AC/Solar/Generator Charger priority by LCD setting.
• Compatible with mains voltage or generator power.
• Overload/over temperature/short circuit protection.
• Smart battery charger design for optimized battery performance
• With limit function, prevent excess power overflow to the grid.
• Supporting WIFI monitoring and build-in 2 strings of MPP trackers
• Smart settable three stages MPPT charging for optimized battery performance.
• Time of use function.
• Smart Load Function.

2.4 Basic System Architecture

The following illustration shows basic application of this inverter.

It also includes following devices to have a Complete running system.

- Generator or Utility

- PV modules

Consult with your system integrator for other possible system architectures depending on your requirements.

This inverter can power all kinds of appliances in home or office environment, including motor type appliances such as refrigerator and air conditioner.

graph TD
    Solar["Solar"] -->|Wireless| GridCell["Grid Cell"]
    Battery["Battery"] -->|Wireless| GridCell
    GridCell -->|Wireless| WiFi["WiFi"]
    GridCell -->|Wireless| GPRS["GPRS"]
    WiFi -->|Wireless| PhoneCloudPhone["phoneCloud services"]
    GPRS -->|Wireless| PhoneCloudPhone
    PhoneCloudPhone -->|Wireless| AC_Cable["AC cable DC cable"]
    AC Cable -->|Wireless| GridCell
    GridCell -->|Wireless| GridBackupLoad["GridBackup Load"]
    GridBackupLoad -->|Wireless| CT["CT"]
    GridBackupLoad -->|Wireless| InverterInverterInverterInverterSmartLoad["Grid-connected InverterSmart Load"]
    GridBackupLoad --> Generator["Generator"]
    Generator --> ATS["ATS"]
    Battery --> ATS
    WiFi --> WiFi
    GPRS --> WiFi
    PhoneCloudService["phoneCloud services"] --> WiFi

3. Installation

3.1 Parts List

Check the equipment before installation. Please make sure nothing is damaged in the package. You should have received the items in the following package:

Technical line drawing of a mechanical component with a cylindrical shaft and housing (no text or symbols)

*One for BMS communication cable, and another two for AC wires.

3.2 Product handling requirements

Lift the inverter out of the packing box and transport it to designated installation location.

Technical line drawing of an electronic device with ports and a central control panel (no text or symbols)

transport

CAUTION:

Improper handling may cause personal injury!

• Arrange an appropriate number of personnel to carry the inverter according to its weight, and installation personnel should wear protective equipment such as anti-impact shoes and gloves.
• Placing the inverter directly on a hard ground may cause damage to its metal enclosure. Protective materials such as sponge pad or foam cushion should be placed underneath the inverter.
• Move the inverter by one or two people or by using a proper transport tool.
• Move the inverter by holding the handles on it. Do not move the inverter by holding the terminals.

3.3 Mounting instructions

Installation Precaution

This Hybrid inverter is designed for outdoor use(IP65), Please make sure the installation site meets below conditions:

• Not in direct sunlight
  · Not in areas where highly flammable materials are stored.
• Not in potential explosive areas.
• Not in the cool air directly.
• Not near the television Antenna or antenna cable.
  · Not higher than altitude of about 2000 meters above sea level.
  · Not in environment of precipitation or humidity(>95%)

Please AVOID direct sunlight, rain exposure, snow laying up during installation and operation. Before connecting all wires, please take off the metal cover by removing screws as shown below:

Technical line drawing of an electronic device with internal components and mounting base (no text or symbols)

Installations Tools

Installation tools can refer to the following recommended ones. Also, use other auxiliary tools on site.

Protective goggles EarplugsAnti-dust mask Work gloves Utility Knife Slotted screwdriver

Cross screwdriver

Percussion drill

Pliers

Marker

Level

Rubber hammer socket wrenches set

Anti-static wrist strap

Wire cutter

Wire stripper

Hydraulic pliers

Heat gun

Crimping tool4-6mm ^2

Solar connector wrench

Multimeter ≥1100 Vdc

RJ45 crimping plier

Cleaner

Considering the following points before selecting where to install:

• Please select a vertical wall with load-bearing capacity for installation, suitable for installation on concrete or other non-flammable surfaces, installation is shown below.
• Install this inverter at eye level in order to allow the LCD display to be read at all times.
• The ambient temperature is recommended to be between -40\~60°C to ensure optimal operation.
• Be sure to keep other objects and surfaces as shown in the diagram to guarantee sufficient heat dissipation and have enough space for removing wires.

For proper air circulation to dissipate heat, allow a clearance of approx. 50cm to the side and approx. 50cm above and below the unit. And 100cm to the front.

Mounting the inverter

Remember that this inverter is heavy! Please be careful when lifting out from the package. Choose the recommend drill head(as shown in below pic) to drill 4 holes on the wall, 82-90mm deep.

1. Use a proper hammer to fit the expansion bolt into the holes.
2. Carry the inverter and holding it, make sure the hanger aim at the expansion bolt, fix the inverter on the wall.
3. Fasten the screw head of the expansion bolt to finish the mounting.

Technical line drawing of a server rack unit with cooling fans and ventilation slots (no text or symbols)

3.4 Battery connection

For safe operation and compliance, a separate DC over-current protector or disconnect device is required between the battery and the inverter. In some applications, switching devices may not be required but over-current protectors are still required. Refer to the typical amperage in the table below for the required fuse or circuit breaker size.

Model	Wire Size	Cable( mm^2 )	Torque value(max)
5kW	1AWG	35	16.9Nm
6kW	0AWG	50	20.3Nm
7.6/8kW	3/0AWG	70	28.2Nm
10kW 95 28.2Nm4/0AWG
12kW 120 36.7Nm250kcmil

Chart 3-2 Cable size

All wiring must be performed by a professional person.

Connecting the battery with a suitable cable is important for safe and efficient operation of the system. To reduce the risk of injury, refer to Chart 3-2 for recommended cables.

Please follow below steps to implement battery connection:

1. Please choose a suitable battery cable with correct connector which can well fit into the battery terminals.
2. Use a suitable screwdriver to unscrew the bolts and fit the battery connectors in, then fasten the bolt by the screwdriver, make sure the bolts are tightened with torque of 24.5 N.M in clockwise direction
3. Make sure polarity at both the battery and inverter is correctly connected.

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1. In case of children touch or insects go into the inverter, Please make sure the inverter connector is fasten to waterproof position by twist it clockwise.

Installation must be performed with care.

Before making the final DC connection or closing DC breaker/disconnect, be sure positive(+) must be connect to positive(+) and negative(-) must be connected to negative(-). Reverse polarity connection on battery will damage the inverter.

3.4.1 Function port definition SUN-(5-8)K-SG02LP2-US-AM2

Diagram of an electrical enclosure with internal components and a circular component, enclosed in a dashed border (no text or symbols)

Inverter

Technical diagram of an electronic device front panel with ports and connectors (no text or labels visible)

TEMP (1,2): battery temperature sensor for lead acid battery.

CT-L1 (3,4): current transformer (CT1) for "zero export to CT" mode clamps on L1 when in split phase system.

CT-L2 (5,6): current transformer (CT2) for "zero export to CT" mode clamps on L2 when in split phase system.

G-start (7,8): dry contact signal for startup the diesel generator. When the "GEN signal" is active, the open contact (GS) will switch on (no voltage output).

G-valve (9,10): reserved.

RSD_12V_out(11+,12-): When battery is connected and the inverter is in "ON" status, it will provide 12Vdc.

ATS_240V: If the conditions are met, it will output 230Vac.

RSD_Short Signal/RSD_Voltage Signal(B,B/+, -): when the terminal "B" & "B" is short-circuited with additional wire connection, or there's 12Vdc input at the terminal "+ & - ", then the 12Vdc of RSD+ & RSD- will disappear immediately, and the inverter will shutdown immediately.

BMS: BMS port for battery communication. Meter_CON: for energy meter communication.

Parallel A: Parallel communication port 1 (CAN interface).

Parallel B: Parallel communication port 2 (CAN interface).

DRM: It is used to accept the external input signal(Digital input).

GS (diesel generator startup signal)

SUN-(10-12)K-SG02LP2-US-AM3

Diagram of an electrical enclosure with internal components and a central display (no text or labels)

Inverter

Technical diagram of an electronic device chassis with ports and connectors (no text or labels visible)

TEMP (1,2): battery temperature sensor for lead acid battery.

CT-L1 (3,4): current transformer (CT1) for "zero export to CT" mode clamps on L1 when in split phase system.

CT-L2 (5,6): current transformer (CT2) for "zero export to CT" mode clamps on L2 when in split phase system.

G-start (7,8): dry contact signal for startup the diesel generator.

When the "GEN signal" is active, the open contact (GS) will switch on (no voltage output).

G-valve (9,10): reserved.

RSD_12V_out(11+,12-): When battery is connected and the inverter is in "ON" status, it will provide 12Vdc.

ATS_240V: If the conditions are met, it will output 230Vac.

RSD_Short Signal/RSD_Voltage Signal(B,B/+, -): when the terminal “B” & “B” is short-circuited with additional wire connection, or there’s 12Vdc input at the terminal “+ & -”, then the 12Vdc of RSD+ & RSD- will disappear immediately, and the inverter will shutdown immediately.

GS (diesel generator startup signal)

3.4.2 Temperature sensor connection for lead-acid battery

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3.5 Grid connection and backup load connection

• Before connecting to the grid, a separate AC breaker must be installed between the inverter and the grid, and also between the backup load and the inverter. This will ensure the inverter can be securely disconnected during maintenance and fully protected from over current. For the 5/6/7.6/8/10/12kW model, the recommended AC breaker for backup load 5/6kW is 40A, 7.6/8kW is 63A, 10/12kW is 100A. For the 5/6/7.6/8/10/12kW model, the recommended AC breaker for grid 5/6KW is 40A, 7.6/8KW is 63A, 10/12kW is 100A.
• There are three terminal blocks with "Grid" "Load" and "GEN" markings. Please do not misconnect input and output connectors.

Note:

In final installation, breaker certified according to IEC 60947-1 and IEC 60947-2 shall be installed with the equipment.

All wiring must be performed by a qualified personnel. It is very important for system safety and efficient operation to use appropriate cable for AC input connection. To reduce risk of injury, please use the proper recommended cable as below.

Grid connection and backup load connection (Copper wires)

Model	Wire Size	Cable( mm^2 )	Torque value(max)
5kW	8AWG	8.4	2.8Nm
6/7.6/8kW 6AWG	13.3 4.0Nm
10/12kW 4AWG	21.1 4.0Nm

Grid connection and backup load connection (Copper wires) (bypass)

Model	Wire Size	Cable( mm^2 )	Torque value(max)
5kW	8AWG	8.4	2.8Nm
6/7.6/8kW 6AWG	13.3 4.0Nm
10/12kW 4AWG	21.1 4.0Nm

Chart 3-3 Recommended Size for AC wires

Please follow below steps to implement AC input/output connection:

1. Before making Grid, load and Gen port connection, be sure to turn off AC breaker or disconnector first.
2. Remove insulation sleeve 10mm length, unscrew the bolts. For GRID port, just insert the wires into the terminals according to polarities indicated on the terminal block. For GEN and Load ports, thread the wires through the magnetic ring firstly, then insert these wires into the terminals according to polarities indicated on the terminal block. Tighten the terminal screws and make sure the wires are completely and safely connected.

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GRID LOADGEN PORT

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GRID LOADGEN

Interior view of an electronic device showing internal components and connectors (no text or symbols visible)

Thread the 3 wires of GEN terminal through the magnetic ring.

Interior view of an electronic device showing internal components and connectors (no text or symbols visible)

Thread the 3 wires of Load terminal through the magnetic ring.

Be sure that AC power source is disconnected before attempting to wire it to the unit.

1. Then, insert AC output wires according to polarities indicated on the terminal block and tighten terminal. Be sure to connect corresponding N wires and PE wires to related terminals as well.
2. Make sure the wires are securely connected.
3. Appliances such as air conditioner are required at least 2-3 minutes to restart because it is required to have enough time to balance refrigerant gas inside of circuit. If a power shortage occurs and recovers in short time, it will cause damage to your connected appliances. To prevent this kind of damage, please check manufacturer of air conditioner if it is equipped with time-delay function before installation. Otherwise, this inverter will trigger overload fault and cut off output to protect your appliance but sometimes it still causes internal damage to the air conditioner

3.6 PV Connection

Before connecting to PV modules, please install a separately DC circuit breaker between inverter and PV modules. It is very important for system safety and efficient operation to use appropriate cable for PV module connection. To reduce risk of injury, please use the proper recommended cable size as below.

Model	Wire Size	Cable( mm^2 )
5/6/7.6/8/10/12kW	12AWG	2.5

Chart 3-4 Cable size

To avoid any malfunction, do not connect any PV modules with possible current leakage to the inverter. For example, grounded PV modules will cause current leakage to the inverter. When using PV modules, please ensure the PV+ & PV- of solar panel is not connected to the system ground bar.

It is requested to use PV junction box with surge protection. Otherwise, it will cause damage on inverter when lightning occurs on PV modules.

3.6.1 PV Module Selection:

When selecting proper PV modules, please be sure to consider below parameters:

1) Open circuit Voltage (Voc) of PV modules not exceeds max. PV array open circuit voltage of inverter.
2) Open circuit Voltage (Voc) of PV modules should be higher than min. start voltage.
3) The PV modules used to connected to this inverter shall be Class A rating certified according to IEC 61730.

Inverter Model 5kW 6kW	8kW 10kW	12kW
PV Input Voltage	370V (125V~500V)
	150V-425VPV Array MPPT Voltage Ra
No. of MPP Trackers	2			3
No. of Strings per MPP Tracker				2+2+22+2

Chart 3-5

3.6.2 PV Module Wire Connection:

Please follow below steps to implement PV module connection:

1. Remove insulation sleeve 10 ~mm for positive and negative conductors.
2. Suggest to put bootlace ferrules on the end of positive and negative wires with a proper crimping tool.
3. Check correct polarity of wire connection from PV modules and PV input connectors. Then, connect positive pole (+) of connection wire to positive pole (+) of PV input connector. Connect negative pole (-) of connection wire to negative pole(-) of PV input connector. Close the switch and make sure the wires are tightly fixed.

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3.7 CT Connection

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The primary side of the CT needs to be clamped on the Grid live line.

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The primary side of the CT needs to be clamped on the Grid live line.

3.7.1 Meter Connection

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When the inverter is in the off-grid state, the N line needs to be connected to the earth.

3.8 Earth Connection(mandatory)

Ground cable shall be connected to ground plate on grid side, this prevents electric shock if the original protective conductor fails.

Earth connection (Copper wires)

Model	Wire Size	Cable( mm^2 )	Torque value(max)
5/6kW	6AWG	13.3	4.0Nm
7.6/8/10kW 4AWG	21.2 4.0Nm
12kW 3AWG	26.7 4.0Nm

Earth connection (Copper wires) (bypass)

Model	Wire Size	Cable( mm^2 )	Torque value(max)
5/6kW	6AWG	13.3	4.0Nm
7.6/8/10kW 4AWG	21.2 4.0Nm
12kW 3AWG	26.7 4.0Nm

Warning:

Inverter has built-in leakage current detection circuit, The type A RCD can be connected to the inverter for protection according to the local laws and regulations. If an external leakage current protection device is connected, its operating current must be equal to 300 mA or higher, otherwise inverter may not work properly.

3.9 WIFI Connection

For the configuration of Wi-Fi Plug, please refer to illustrations of the Wi-Fi Plug. The Wi-Fi Plug is not a standard configuration, it's optional.

3.10 Wiring System for Inverter

graph TD
    PV["PV"] --> DC_Breaker["DC Breaker"]
    DC_Breaker --> Hybrid_Inverter["Hybrid Inverter"]
    Battery["Battery"] --> DC_Breaker1["DC Breaker"]
    Battery --> DC_Breaker2["DC Breaker"]
    Battery --> AC_Breaker["AC Breaker"]
    AC_Breaker --> Hybrid_Inverter
    Hybrid_Inverter --> Load["Load"]
    Load --> AC_Breaker2
    AC_Breaker --> Grid["Grid"]
    AC_Breaker --> Load2["Load"]
    AC_Breaker --> Grid2["Grid"]
    AC_Breaker --> Load3["Load"]
    AC_Breaker --> Grid3["Grid"]
    AC_Breaker --> Load4["Load"]
    AC_Breaker --> Grid4["Grid"]
    AC_Breaker --> Load5["Load"]
    AC_Breaker --> Grid5["Grid"]
    AC_Breaker --> Load6["Load"]
    AC_Breaker --> Grid6["Grid"]
    AC_Breaker --> Load7["Load"]
    AC_Breaker --> Grid7["Grid"]
    AC_Breaker --> Load8["Load"]
    AC_Breaker --> Grid8["Grid"]
    AC_Breaker --> Load9["Load"]
    AC_Breaker --> Grid9["Grid"]
    AC_Breaker --> Load10["Load"]
    AC_Breaker --> Grid10["Grid"]
    AC_Breaker --> Load11["Load"]
    AC_Breaker --> Grid11["Grid"]
    AC_Breaker --> Load12["Load"]
    AC_Breaker --> Grid12["Grid"]
    AC_Breaker --> Load13["Load"]
    AC_Breaker --> Grid13["Grid"]
    AC_Breaker --> Load14["Load"]
    AC_Breaker --> Grid14["Grid"]
    AC_Breaker --> Load15["Load"]
    AC_Breaker --> Grid15["Grid"]
    AC_Breaker --> Load16["Load"]
    AC_Breaker --> Grid16["Grid"]
    AC_Breaker --> Load17["Load"]
    AC_Breaker --> Grid17["Grid"]
    AC_Breaker --> Load18["Load"]
    AC_Breaker --> Grid18["Grid"]
    AC_Breaker --> Load19["Load"]
    AC_Breaker --> Grid19["Grid"]
    AC_Breaker --> Load20["Load"]
    AC_Breaker --> Grid20["Grid"]
    AC_Breaker --> Load21["Load"]
    AC_Breaker --> Grid21["Grid"]
    AC_Breaker --> Load22["Load"]
    AC_Breaker --> Grid22["Grid"]
    AC_Breaker --> Load23["Load"]
    AC_Breaker --> Grid23["Grid"]
    AC_Breaker --> Load24["Load"]
    AC_Breaker --> Grid24["Grid"]
    AC_Breaker --> Load25["Load"]
    AC_Breaker --> Grid25["Grid"]
    AC_Breaker --> Load26["Load"]
    AC_Breaker --> Grid26["Grid"]
    AC_Breaker --> Load27["Load"]
    AC_Breaker --> Grid27["Grid"]
    AC_Breaker --> Load28["Load"]
    AC_Breaker --> Grid28["Grid"]
    AC_Breaker --> Load29["Load"]
    AC_Breaker --> Grid29["Grid"]
    AC_Breaker --> Load30["Load"]
    AC_Breaker --> Grid30["Grid"]
    AC_Breaker --> Load31["Load"]
    AC_Breaker --> Grid31["Grid"]
    AC_Breaker --> Load32["Load"]
    AC_Breaker --> Grid32["Grid"]
    AC_Breaker --> Load33["Load"]
    AC_Breaker --> Grid33["Grid"]

3.11 Typical application diagram of diesel generator

SUN-(5-8)K-SG02LP2-US-AM2

② AC Breaker for gen port SUN-5K-SG-US: 40A AC breaker SUN-6K-SG-US: 40A AC breaker SUN-7.6K-SG-US: 63A AC breaker SUN-8K-SG-US: 63A AC breaker

SUN-(10-12)K-SG02LP2-US-AM3

① DC Breaker for battery SUN-10K-SG-US: 300A DC breaker SUN-12K-SG-US: 300A DC breaker
② AC Breaker for gen port SUN-10K-SG-US: 100A AC breaker SUN-12K-SG-US: 100A AC breaker
③ AC Breaker for backup load port SUN-10K-SG-US: 100A AC breaker SUN-12K-SG-US: 100A AC breaker

3.12 Split phase (120/240Vac) parallel connection diagram

SUN-(5-8)K-SG02LP2-US-AM2

graph TD
    A["Master inverter"] --> B["Inverter No.3 (slave)"]
    A --> C["Inverter No.2 (slave)"]
    A --> D["Inverter No.1 (master)"]
    A --> E["Master inverter"]
    B --> F["Ground"]
    C --> F
    D --> F
    E --> F
    F --> G["Backup Load"]
    H["Battery pack"] --> I["Master inverter"]
    H --> J["Slave Inverter"]
    H --> K["Slave Inverter"]
    H --> L["Backup Load"]
    M["AC Breaker Depends on Home Load"] --> N["Home Load"]
    O["CT Arrow pointing to inverter"] --> P["Grid PE NL2 L1 CT2 CT1 AC Breaker"]
    Q["① DC Breaker"] --> R["Ground"]
    S["② DC Breaker"] --> T["Ground"]
    U["③ DC Breaker"] --> V["Ground"]
    W["④ AC Breaker for backup load port"] --> X["Ground"]
    Y["⑤ AC Breaker for grid port"] --> Z["Ground"]
    AA["⑥ AC Breaker for battery"] --> AB["Ground"]
    AC["⑦ AC Breaker for battery"] --> AD["Ground"]
    AE["⑧ AC Breaker for grid port"] --> AF["Ground"]
    AG["Home Load"] --> AH["L1 L2 N PE"]
    AI["Ground"] --> AJ["L1 L2 N PE"]

SUN-(10-12)K-SG02LP2-US-AM3

graph TD
    A["Inverter"] --> B["Inverter No.3 (slave)"]
    B --> C["Ground"]
    C --> D["Parikl A Parikl B"]
    D --> E["① DC Breaker"]
    E --> F["② DC Breaker"]
    F --> G["③ DC Breaker"]
    G --> H["④ AC Breaker for grid port SUN-10K-SG-US: 100A AC breaker SUN-12K-SG-US: 100A AC breaker"]
    H --> I["⑤ DC Breaker for battery SUN-10K-SG-US: 300A DC breaker SUN-12K-SG-US: 300A DC breaker"]
    I --> J["⑥ AC Breaker for backup load port SUN-10K-SG-US: 100A AC breaker SUN-12K-SG-US: 100A AC breaker"]
    J --> K["⑦ AC Breaker for grid port SUN-10K-SG-US: 100A AC breaker SUN-12K-SG-US: 100A AC breaker"]
    K --> L["⑧ AC Breaker for grid port SUN-10K-SG-US: 100A AC breaker SUN-12K-SG-US: 100A AC breaker"]
    L --> M["Home Load"]
    M --> N["L1 L2 N PE"]
    N --> O["Grid"]
    O --> P["PE NL2 L1"]
    P --> Q["CT2 CT1"]
    Q --> R["AC Breaker"]
    R --> S["The primary side of the CT needs to be clamped on the Grid live line."]
    S --> T["Battery pack"]

Master inverter Slave Inverter Slave Inverter

Backup Load

3.13 pcs Parallel connection for 120/208 three phase

SUN-(5-8)K-SG02LP2-US-AM2

graph TD
    A["Home load"] --> B["Battery pack"]
    B --> C["CAN/RS 485"]
    C --> D["Inverter No.1 (master)"]
    D --> E["① DC Breaker"]
    D --> F["② DC Breaker"]
    D --> G["③ AC Breaker"]
    G --> H["L1(L1)"]
    G --> I["L2(L1', L2)"]
    G --> J["L3(L2')"]
    G --> K["N-BAR"]
    K --> L["E-BAR"]
    L --> M["A Phase Master inverter"]
    M --> N["Advanced Function"]
    N --> O["Advanced Function"]
    O --> P["Paral. Seld"]
    P --> Q["Master"]
    P --> R["Slave"]
    P --> S["A Phase"]
    P --> T["B Phase"]
    P --> U["C Phase"]
    Q --> V["Master"]
    Q --> W["Slave"]
    Q --> X["A Phase"]
    Q --> Y["B Phase"]
    Q --> Z["C Phase"]
    Q --> AA["Paral. Seld"]

SUN-(10-12)K-SG02LP2-US-AM3

graph TD
    subgraph_HomeLoad["Home Load"]
        A["⑤ AC Breaker"] --> B["CT1"]
        A --> C["CT2"]
        A --> D["CT3"]
        E["CAN/RS 485 Battery pack"] --> F["Inverter No.1(master)"]
        G["① DC Breaker"] --> H["Inverter No.2(master)"]
        I["② DC Breaker"] --> J["Inverter No.2(master)"]
        K["③ AC Breaker"] --> L["Inverter No.2(master)"]
        M["④ AC Breaker"] --> N["Inverter No.1(master)"]
        O["⑤ Arrow pointing to inverter"] --> P["CT"]
        Q["N-BAR"] --> R["E-BAR"]
    end

    subgraph_BackupLoad["Backup Load"]
        S["Ground"] --> T["AC Breaker"]
        U["① DC Breaker for battery"] --> V["DC Breaker for battery"]
        W["② AC Breaker for grid port"] --> X["AC Breaker for grid port"]
        Y["③ AC Breaker Depends on Home Load"]
    end

    subgraph_AdvancedFunction["Advanced Function"]
        Z["Advanced Function"] --> AA["Parallel Mode"]
        AA --> AB["Mbus SN"]
        AB --> AC["A Phase"]
        AC --> AD["B Phase"]
        AD --> AE["Panel Sets"]
        AE --> AF["Save"]
        AF --> AG["C Phase"]
        AG --> AH["Panel Sets"]
    end

    style HomeLoad fill:#f9f,stroke:#333
    style BackupLoad fill:#bbf,stroke:#333
    style AdvancedFunction fill:#dfd,stroke:#333

3.14 Parallel connection for 120/208 three phase

SUN-(5-8)K-SG02LP2-US-AM2

graph TD
    subgraph Master_Architecture
        A["Parallel A Parallel B"] --> B["① DC Breaker"]
        B --> C["② DC Breaker"]
        C --> D["③ DC Breaker"]
        D --> E["④ AC Breaker"]
    end

    subgraph Branch_Architecture
        F["N L2 L1 N L2' L1' N L2'' L1'"] --> G["① DC Breaker"]
        H["N L2 L1' L2'' L1' N L2'' L1'"] --> I["② DC Breaker"]
        J["N L2 L1' L2'' L1' N L2'' L1'"] --> K["③ DC Breaker"]
        L["N L2 L1' L2'' L1' N L2'' L1'"] --> M["④ AC Breaker"]
    end

    subgraph Branch_Brchitecture
        N["Home load"] --> O["⑥ AC Breaker"]
        P["CT1 CT2 CT3"] --> Q["L1(L1 L2'') L2(L1' L2') L3(L1'' L2') PE"]
    end

    subgraph Backup_Load_Cycle
        R["Ground"] --> S["N-BAR"]
        T["PE"] --> U["E-BAR"]
        V["NC"] --> W["N-BAR"]
    end

    subgraph PhaseInverter_Cycle
        X["A Phase Master inverter"] --> Y["B Phase Master inverter"]
        Z["C Phase Master inverter"] --> AA["B Phase Master inverter"]
        AB["A Advanced Function"] --> AC["Advanced Function"]
    end

    note["Note: the 1st CT needs to be connected the 3/4 port of master A hybrid inverter, the second CT needs to be connected the 5/6 port of the master A hybrid inverter. The third CT needs to be connected to 5/6 port of the master B hybrid inverter."]

graph TD
    subgraph_HomeLoad["Home load"]
        A["⑥ AC Breaker"] --> B["CT1"]
        A --> C["CT2"]
        A --> D["CT3"]
        E["① DC Breaker"] --> F["CAN/RS 485"]
        G["② DC Breaker"] --> H[" Battery pack"]
        I["③ DC Breaker"] --> J[" Battery pack"]
        K["④ AC Breaker"] --> L[" backup Load"]
        M["⑤ AC Breaker"] --> N[" Battery pack"]
        O["⑥ AC Breaker"] --> P[" Home load "]
        Q["⑦ CT"] --> R[" Arrow pointing to inverter "]
        S["NE"] --> T[" NE "]
        U["L1(L1 L2'') L2(L1' L2') L3(L1'' L2'')"] --> V["N-BAR"]
        W["E-BAR"] --> X["N-BAR"]
    end

    subgraph_Inverters["Inverter No.1 (master)"]
        Y["① DC Breaker"] --> Z["CAN/RS 485"]
        AA["② DC Breaker"] --> AB[" Battery pack"]
        AC["③ DC Breaker"] --> AD[" Battery pack"]
        AE["④ AC Breaker"] --> AF[" backup Load"]

    end

    subgraph_PhaseInverters["A Phase Master inverter B Phase Master inverter C Phase Master inverter"]
        AG["Advanced Function"] --> AH["Parallel Modbus SN A Phase Master B Phase Master C Phase Parallel Sets"]
        AI["Advanced Function"] --> AJ["Parallel Modbus SN A Phase Master B Phase Master C Phase Parallel Sets"]
        AK["Advanced Function"] --> AL["Parallel Modbus SN A Phase Master B Phase Master C Phase Parallel Sets"]

    style HomeLoad fill:#99CCFF,stroke:#333
    style Inverters fill:#99CCFF,stroke:#333
    style PhaseInverters fill:#99CCFF,stroke:#333
    note right of HomeLoad: *Note: the 1st CT needs to be connected the 3/4 port of master A hybrid inverter, the second CT needs to be connected the 5/6 port of the master A hybrid inverter. The third CT needs to be connected to 5/6 port of the master B hybrid inverter.

4. OPERATION

4.1 Power ON/OFF

Once the unit has been properly installed and the batteries are connected well, simply press On/Off button(located on the left side of the case) to turn on the unit. When system without battery connected, but connect with either PV or grid, and ON/OFF button is switched off, LCD will still light up(Display will show OFF), In this condition, when switch on ON/OFF button and select NO battery, system can still working.

4.2 Operation and Display Panel

The operation and display panel, shown in below chart, is on the front panel of the inverter. It includes four indicators, four function keys and a LCD display, indicating the operating status and input/output power information.

LED Indicator		Messages
DC	Green led solid light	PV Connection normal
AC	Green led solid light	Grid Connection normal
Normal	Green led solid light	Inverter operating normal
Alarm	Red led solid light	Malfunction or warning

Chart 4-1 LED indicators

Function Key	Description
Esc	To exit setting mode
Up	To go to previous selection
Down	To go to next selection
Enter	To confirm the selection

Chart 4-2 Function Buttons

5. LCD Display Icons

5.1 Main Screen

The LCD is touchscreen, below screen shows the overall information of the inverter.

1. The icon in the center of the home screen indicates that the system is Normal operation. If it turns into "comm./F01\~F64", it means the inverter has communication errors or other errors, the error message will display under this icon(F01-F64 errors, detail error info can be viewed in the System Alarms menu).

2.At the top of the screen is the time.

1. System Setup Icon, Press this set button, you can enter into the system setup screen which including Basic Setup, Battery Setup, Grid Setup, System Work Mode, Generator port use, Advanced function and Li-Batt info.

2. The main screen showing the info including Solar, Grid, Load and Battery. Its also displaying the energy flow direction by arrow. When the power is approximate to high level, the color on the panels will changing from green to red so system info showing vividly on the main screen.

3. PV power and Load power always keep positive.
   · Grid power negative means sell to grid, positive means get from grid.

4. Battery power negative means charge, positive means discharge.

5.1.1 LCD operation flow chart

graph TD
    A["Main Screen"] --> B["Solar Page Sc"]
    A --> C["Grid Page"]
    A --> D["Inverter Page"]
    A --> E["Battery Page"]
    A --> F["Load Page"]
    A --> G["System Setup"]
    G --> H["Device info"]
    G --> I["Advanced Function"]
    G --> J["Basic Setting"]
    G --> K["Gen Port Use"]
    G --> L["Grid Setting"]
    G --> M["System Work Mode"]
    G --> N["Battery Setting"]
    G --> O["Load Graph"]
    G --> P["BMS Page"]
    G --> Q["Grid Graph"]

5.2 Solar Power Curve

Solar

Power: 2923W Grid Tie Power: 2923W

PV1-V: 0V

PV2-V: 0V

PV3-V: 0V

PV1-I: 0A

PV2-I: 0.1A

PV3-1: 0.0A

P1:0W

P2:0W

P3: 0W

Today=0.3 KWH

Total =3.90 KWH

4

②

3

Energy

This is Solar Panel detail page.

① Solar Panel Generation.
② Grid Tie Power: when there's a string inverter AC couple at the grid or load side of hybrid inverter and there's a meter installed for the string inverter, then the hybrid inverter LCD will show the string inverter output power on its PV icon. Please make sure the meter can communicate with the hybrid inverter successfully.
③ Voltage, Current, Power for each MPPT.
④ Solar Panel energy for Day and Total.

Press the "Energy" button will enter into the power curve page.

Inverter

Power: 44W

0.0Hz

L1: 240V

1:0.6A

①

DC-T:52.6C

AC-T:41.0C

3

2

This is Inverter detail page.

① Inverter Generation.
② 0.0Hz: frequency after DC/AC. Voltage, Current, Power for each Phase.
③ *DC-T: mean DC-DC temperature, AC-T: mean Heat-sink temperature.

*Note: this part info is not available for some LCD FW.

Load

Power: 0W

L: 0V

①

Today=0.0 KWH

2

3

Total =0.40 KWH

Energy

This is Load detail page.

① Load Power.
② Voltage, Power for each Phase.
③ Load consumption for Day and Total.

When you check "Selling First" or "Zero export to Load" on system work mode page, the information on this page is about backup load which connect on Load port of hybrid inverter.

When you check "Zero export to CT" on system work mode page, the information on this page is including backup load and home load.

Press the "Energy" button will enter into the power curve page.

Grid

Stand-by

Power: 0W

0.0Hz

L1: 0V

L2: 0V

CT1: 0W

CT2: 0W

LD1: 0W

LD2: 0W

①

BUY

Today=2.2KWH

Total =11.60 KWH

SELL

Today=0.0KWH

Total =8.60 KWH

3

Energy

This is Grid detail page.

① Status, Power, Frequency.
② L1&L2: Voltage for each Phase

CT1&CT2: External Current Sensor Power LD1&LD2: Internal Current Sensor Power.

③ BUY: Energy from Grid to Inverter,

SELL: Energy from Inverter to Grid.

Press the "Energy" button will enter into the power curve page.

This is Battery detail page.
if you use Lithium Battery, you can enter BMS page.

Request Force Charge: It indicates the BMS requests hybrid inverter to charge the battery actively.

5.3 Curve Page-Solar & Load & Grid

Solar power curve for daily, monthly, yearly and total can be roughly checked on the LCD, for more accuracy power generation, pls check on the monitoring system. Click the up and down arrow to check power curve of different period.

5.4 System Setup Menu

graph TD
    A["System Setup"] --> B["Battery Setting"]
    A --> C["System Work Mode"]
    A --> D["Grid Setting"]
    A --> E["Gen Port Use"]
    A --> F["Basic Setting"]
    A --> G["Advanced Function"]
    A --> H["Device Info."]

This is System Setup page.

5.5 Basic Setup Menu

Factory Reset: Reset all parameters of the inverter. Lock out all changes: Enable this menu for setting parameters that require locking and cannot be set up. Before performing a successful factory reset and locking the systems, to keep all changes you need to type in a password to enable the setting. The password for factory settings is 9999 and for lock out is 7777.

Factory Reset Password: 9999

Lock out all changes Password: 7777

System selfchek: After ticking this item, it needs input the password. The default password is 1234

5.6 Battery Setup Menu

Battery Setting

Battery capacity: it tells Deye hybrid inverter to know your battery bank size.

Use Batt V: Use Battery Voltage for all the settings (V).

Use Batt %: Use Battery SOC for all the settings (%).

Max. A charge/discharge: Max battery charge/discharge current(0-90A for 3.6kW model, 0-120A for 5kW model, 0-135A for 6kW model, 0-190A for 7.6/8kW model, 0-220A for 10kW model, 0-250A for 12kW model).

For AGM and Flooded, we recommend Ah battery size x 20%= Charge/Discharge amps.

. For Lithium, we recommend Ah battery size x 50% = Charge/Discharge amps.

. For Gel, follow manufacturer's instructions.

No Batt: tick this item if no battery is connected to the system.

Active battery: This feature will help recover a battery that is over discharged by slowly charging from the solar array or grid.

Disable Float Charge: For the lithium battery with BMS communication, the inverter will keep the charging voltage at the current voltage when the BMS charging current requested is 0. It is used to help prevent battery from being overcharged.

Battery Setting

This is Battery Setup page.

Start =30%: Percent S.O.C at 30% system will AutoStart a connected generator to charge the battery bank.

A = 40A: Charge rate of 40A from the attached generator in Amps.

Gen Charge: uses the gen input of the system to charge battery bank from an attached generator.

Gen Signal: Normally open relay that closes when the Gen Start signal state is active.

This is Grid Charge, you need select. ②

Start =30%: No use, Just for customization.

A = 40A: It indicates the Current that the Grid charges the Battery.

Grid Charge: It indicates that the grid charges the battery.

Grid Signal: Disable.

Gen Force: When the generator is connected, it is forced to start the generator without meeting other conditions.

This page tells the PV and diesel generator power the load and battery.

This page tells generator output voltage, frequency, power. And, how much energy is used from generator.

Lithium Mode: This is BMS protocol. Please reference the document (Approved Battery).

Shutdown 10%: It indicates the inverter will shutdown if the SOC below this value.

Low Batt 20%: It indicates the inverter will alarm if the SOC below this value.

Restart 40%: Battery voltage at 40% AC output will resume.

Recommended battery settings

Battery Type	Absorption Stage	Float Stage	Equalization Voltage (every 30 days 3hr)
AGM (or PCC)	14.2V (57.6V) 13.4V	(53.6V)	14.2V (57.6V)
Gel 14.1V (56.4V)	13.5V (54.0V)
Wet 14.7V (59.0V)	13.7V (55.0V) 14.7V (59.0V)
Lithium Follow its BMS voltage parameters

5.7 System Work Mode Setup Menu

Work Mode

Selling First: This Mode allows hybrid inverter to sell back any excess power produced by the solar panels to the grid. If time of use is active, the battery energy also can be sold into grid.

The PV energy will be used to power the load and charge the battery and then excess energy will flow to grid.

Power source priority for the load is as follows:

1. Solar Panels.
2. Grid.
3. Batteries (until programable % discharge is reached).

Zero Export To Load: Hybrid inverter will only provide power to the backup load connected. The hybrid inverter will neither provide power to the home load nor sell power to grid. The built-in CT will detect power flowing back to the grid and will reduce the power of the inverter only to supply the local load and charge the battery.

graph LR
    A["Solar"] --> B["Battery"]
    B --> C["Computer"]
    C --> D["House"]
    D --> E["Grid Backup Load On-Grid Home Load"]
    style A fill:#f9f,stroke:#333
    style B fill:#ccf,stroke:#333
    style C fill:#cfc,stroke:#333
    style D fill:#fcc,stroke:#333
    style E fill:#cff,stroke:#333

Zero Export To CT: Hybrid inverter will not only provide power to the backup load connected but also give power to the home load connected. If PV power and battery power is insufficient, it will take grid energy as supplement. The hybrid inverter will not sell power to grid. In this mode, a CT is needed. The installation method of the CT please refer to chapter 3.6 CT Connection. The external CT will detect power flowing back to the grid and will reduce the power of the inverter only to supply the local load, charge battery and home load.

graph LR
    A["Solar"] --> B["Battery"]
    B --> C["Computer"]
    C --> D["House"]
    D --> E["Grid Backup Load On-Grid Home Load"]
    E --> F["CT"]

Solar Sell: "Solar sell" is for Zero export to load or Zero export to CT: when this item is active, the surplus energy can be sold back to grid. When it is active, PV Power source priority usage is as follows: load consumption and charge battery and feed into grid.

Max. sell power: Allowed the maximum output power to flow to grid.

Zero-export Power: for zero-export mode, it tells the grid output power. Recommend to set it as 20-100W to ensure the hybrid inverter won't feed power to grid.

Energy Pattern: PV Power source priority.

Batt First: PV power is firstly used to charge the battery and then used to power the load. If PV power is insufficient, grid will make supplement for battery and load simultaneously.

Load First: PV power is firstly used to power the load and then used to charge the battery. If PV power is insufficient, grid will make supplement for battery and load simultaneously.

Max Solar Power: allowed the maximum DC input power.

Grid Peak-shaving: when it is active, grid output power will be limited within the set value. If the load power exceeds the allowed value, it will take PV energy and battery as supplement. If still can't meet the load requirement, grid power will increase to meet the load needs.

System Work Mode

Time of use: it is used to program when to use grid or generator to charge the battery, and when to discharge the battery to power the load. Only tick "Time Of Use" then the follow items (Grid, charge, time, power etc.) will take effect.

Note: when in selling first mode and click time of use, the battery power can be sold into grid.

Grid charge: utilize grid to charge the battery in a time period.

Gen charge: utilize diesel generator to charge the battery in a time period.

Time: real time, range of 01:00-24:00.

Power: Max. discharge power of battery allowed.

Batt(V or SOC %): battery SOC % or voltage at when the action is to happen.

System Work Mode

For example:

During 01:00-05:00, when battery SOC is lower than 80%, it will use grid to charge the battery until battery SOC reaches 80%.

During 05:00-08:00 and 08:00-10:00, when battery SOC is higher than 40%, hybrid inverter will discharge the battery until the SOC reaches 40%.

During 10:00-15:00, when battery SOC is higher than 80%, hybrid inverter will discharge the battery until the SOC reaches 80%.

During 15:00-18:00, when battery SOC is higher than 40%, hybrid inverter will discharge the battery until the SOC reaches 40%.

During 18:00-01:00, when battery SOC is higher than 35%, hybrid inverter will discharge the battery until the SOC reaches 35%.

System Work Mode

It allows users to choose which day to execute the setting of "Time of Use".

For example, the inverter will execute the time of use page on Mon/Tue/Wed/Thu/Fri/Sat only.

5.8 Grid Setup Menu

Grid Setting

Unlock Grid Setting: before changing the grid parameters, please enable this with password of 7777. Then it is allowed to change the grid parameters.

Grid Mode: General Standard、UL1741 & IEEE1547、CPUC RULE21、SRD-UL-1741、CEI 0-21、EN50549_CZ、Australia_A、Australia_B、Australia_C、NewZealand、VDE4105、OVE_Directive_R25、EN50549_CZ_PPDS_L16A、NRS097、G98/G99、G98/G99_NI、ESB Networks(Ireland). Please follow the local grid code and then choose the corresponding grid standard.

Grid Setting/Connect

Normal connect: The allowed grid voltage/frequency range when the inverter first time connect to the grid. Normal Ramp rate: It is the startup power ramp.

Reconnect after trip: The allowed grid voltage /frequency range for the inverter connects the grid after the inverter trip from the grid. Reconnect Ramp rate: It is the reconnection power ramp.

Reconnection time: The waiting time period for the inverter connects the grid again. PF: Power factor which is used to adjust inverter reactive power.

Grid Setting/IP Protection

HV1: Level 1 overvoltage protection point;
① HV2: Level 2 overvoltage protection point; ② 0.10s—Trip time.
HV3: Level 3 overvoltage protection point.
LV1: Level 1 undervoltage protection point;
LV2: Level 2 undervoltage protection point;
LV3: Level 3 undervoltage protection point.
HF1: Level 1 over frequency protection point;
HF2: Level 2 over frequency protection point;
HF3: Level 3 over frequency protection point.
LF1: Level 1 under frequency protection point;
LF2: Level 2 under frequency protection point;
LF3: Level 3 under frequency protection point.

Grid Setting/F(W)

FW: this series inverter is able to adjust inverter output power according to grid frequency.

Droop f: percentage of nominal power per Hz

For example, "Start freq f>50.2Hz, Stop freq f<50.2, Droop f=40%PE/Hz" when the grid frequency reaches 50.2Hz, the inverter will decrease its active power at Droop f of 40%. And then when grid system frequency is less than 50.2Hz, the inverter will stop decreasing output power.

For the detailed setup values, please follow the local grid code.

V(W): It is used to adjust the inverter active power according to the set grid voltage. V(Q): It is used to adjust the inverter reactive power according to the set grid voltage. This function is used to adjust inverter output power (active power and reactive power) when grid voltage changes.

Lock-in/Pn 5%: When the inverter active power is less than 5% rated power, the VQ mode will not take effect. Lock-out/Pn 20%: If the inverter active power is increasing from 5% to 20% rated power, the VQ mode will take effect again.

For example: V2=110%, P2=20%. When the grid voltage reaches the 110% times of rated grid voltage, inverter output power will reduce its active output power to 20% rated power.

For example: V1=90%, Q1=44%. When the grid voltage reaches the 90% times of rated grid voltage, inverter output power will output 44% reactive output power. For the detailed setup values, please follow the local grid code.

P(Q): It is used to adjust the inverter reactive power according to the set active power. P(PF): It is used to adjust the inverter PF according to the set active power. For the detailed setup values, please follow the local grid code. Lock-in/Pn 50%: When the inverter output active power is less then 50% rated power, it won't enter the P(PF) mode. Lock-out/Pn 50%: When the inverter output active power is higher then 50% rated power, it will enter the P(PF) mode. Note : only when the grid voltage is equal to or higher than 1.05 times of rated grid voltage, then the P(PF) mode will take effect.

Reserved: This function is reserved. It is not recommended.

5.9 Generator Port Use Setup Menu

Generator input rated power: allowed Max. power from diesel generator. GEN connect to grid input: connect the diesel generator to the grid input port. Smart Load Output: This mode utilizes the Gen input connection as an output which only receives power when the battery SOC and PV power is above a user programmable threshold. e.g. Power=500W, ON: 100%, OFF=95%: When the PV power exceeds 500W, and battery bank SOC reaches 100%, Smart Load Port will switch on automatically and power the load connected. When the battery bank SOC < 95% or PV power < 500w, the Smart Load Port will switch off automatically.

Smart Load OFF Batt

- Battery SOC at which the Smart load will switch off.

Smart Load ON Batt

- Battery SOC at which the Smart load will switch on. Also, the PV input power should exceed the setting value (Power) simultaneously and then the Smart load will switch on.

On Grid always on: When click "on Grid always on" the smart load will switch on when the grid is present.

off grid immediately off: the smart load will stop working immediately when the grid is disconnected if this item is active.

Micro Inv Input: To use the Generator input port as a micro-inverter on grid inverter input (AC coupled), this feature will also work with "Grid-Tied" inverters.

* Micro Inv Input OFF: when the battery SOC exceeds setting value, Microinveter or grid-tied inverter will shut down.
* Micro Inv Input ON: when the battery SOC is lower than setting value, Microinveter or grid-tied inverter will start to work.

AC Couple Fre High: If choosing "Micro Inv input", as the battery SOC reaches gradually setting value (OFF), During the process, the microinverter output power will decrease linear. When the battery SOC equals to the setting value (OFF), the system frequency will become the setting value (AC couple Fre high) and the Microinverter will stop working.

Stop exporting power produced by the microinverter to the grid.

* Note: Micro Inv Input OFF and On is valid for some certain FW version only.
* AC couple on load side: connecting the output of on-grid inverter at the load port of the hybrid inverter. In this situation, the hybrid inverter will not be able to show the load power correctly.
* AC couple on grid side: this function is reserved.
* Note: Some firmware versions don't have this function.

5.10 Advanced Function Setup Menu

Advanced Function

Solar Arc Fault ON: This is only for US.

System selfcheck: Disable. this is only for factory.

Gen Peak-shaving: Enable When the power of the generator exceeds the rated value of it, the inverter will provide the redundant part to ensure that the generator will not overload.

DRM: For AS4777 standard

Backup Delay: When the grid cuts off, the inverter will give output power after the setting time.

For example, backup delay: 3ms. the inverter will give output power after 3ms when the grid cuts off.

Note: for some old FW version, the function is not available.

BMS_Err_Stop: When it is active, if the battery BMS failed to communicate with inverter, the inverter will stop working and report fault.

Signal ISLAND MODE: when "signal island mode" is checked and the inverter connects the grid, the ATS port voltage will be 0. When "signal island mode" is checked and the inverter disconnected from the grid, the ATS port voltage will output 230Vac voltage. With this feature and outside NO type relay, it can realize N and PE disconnection or bond.

More details, please refer to left side picture.

Advanced Function

This is for Wind Turbine

Ex_Meter For CT: when in Three phase system with CHNT Three phase energy meter (DTSU666), click corresponding phase where hybrid inverter is connected. e.g. when the hybrid inverter output connects to A phase, please click A Phase.

Meter Select: select the corresponding meter type according to the meter installed in the system.

Grid Side INV Meter2: when there's a string inverter AC couple at the grid or load side of hybrid inverter and there's a meter installed for the string inverter, then the hybrid inverter LCD will show the string inverter output power on its PV icon. Please make sure the meter can communicate with the hybrid inverter successfully.

graph TD
    A["On-Load+AC couple"] --> B["Solar"]
    A --> C["Battery"]
    A --> D["Smart Load"]
    B --> E["On-Grid Home Load"]
    C --> E
    D --> E
    E --> F["On-Grid Inverter"]
    E --> G["MTeter"]
    E --> H["Backup Load"]
    E --> I["CT"]
    E --> J["Grid"]
    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:#ffc,stroke:#333
    style G fill:#ffc,stroke:#333
    style H fill:#ffc,stroke:#333
    style I fill:#cfc,stroke:#333
    style J fill:#cfc,stroke:#333

graph TD
    A["On-Grid+AC couple"] --> B["Solar"]
    A --> C["Battery"]
    A --> D["Smart Load"]
    B --> E["On-Grid Inverter"]
    C --> E
    D --> F["Meter"]
    E --> G["On-Grid Home Load"]
    F --> G
    G --> H["CT"]
    H --> I["Grid"]
    J["Backup Load"] --> E
    K["AC cable"] --> A
    L["DC cable"] --> A

This page show Inverter ID, Inverter version and alarm codes. HMI: LCD version MAIN: Control board FW version

6. Mode

Mode I:Basic 

graph TD
    A["Solar"] --> B["Battery"]
    B --> C["Grid"]
    D["AC cable"] --> E["DC cable"]
    F["COM cable"] --> G["Home Load"]
    H["Backup Load On-Grid"] --> I["Home Load"]
    J["CT"] --> K["Grid"]
    L["DC"] --> M["Home Load"]
    N["AC"] --> O["DC"]
    P["COM"] --> Q["Home Load"]

Mode II: With Generator 

graph TD
    Solar["Solar"] -->|AC cable DC cable| Grid["Grid"]
    Battery["Battery"] -->|AC cable DC cable| Grid
    Battery -->|AC cable DC cable| Generator["Generator"]
    Battery --> BackupLoad["Backup Load On-Grid Home Load"]
    BackupLoad -->|AC cable DC cable| Grid
    BackupLoad -->|AC cable DC cable| Grid
    BackupLoad -->|AC cable DC cable| Grid
    BackupLoad -->|AC cable DC cable| Grid
    BackupLoad -->|AC cable DC cable| Grid
    BackupLoad -->|AC cable DC cable| Grid
    BackupLoad -->|AC cable DC cable| Grid
    BackupLoad -->|AC cable DC cable| Grid
    BackupLoad -->|AC cable DC cable| Grid
    BackupLoad -.->|AC cable DC cable| Battery
    BackupLoad -.->|AC cable DC cable| Battery
    BackupLoad -.->|AC cable DC cable| Battery
    BackupLoad -.->|AC cable DC cable| Battery
    BackupLoad -.->|AC cable DC cable| Battery
    BackupLoad -.->|AC cable DC cable| Battery
    BackupLoad -.->|AC cable DC cable| Battery

Mode III: With Smart-Load 

graph TD
    Solar["Solar"] --> Battery["Battery"]
    Battery --> Battery
    Battery --> AC["Cable DC Cable"]
    AC --> Backup["Backup Load"]
    AC --> On-Grid["On-Grid Home Load"]
    On-Grid --> Grid["Grid"]
    Grid --> SmartLoad["Smart Load"]
    SmartLoad --> CT["CT"]
    AC --> AC_cable["AC cable DC cable"]

Mode IV: AC Couple 

graph TD
    A["On-Gen+AC couple"] --> B["Solar"]
    A --> C["Battery"]
    B --> D["On-Grid Home Load"]
    C --> D
    D --> E["CT"]
    E --> F["Grid"]
    F --> G["On-Grid Inverter"]
    G --> H["Backup Load"]
    H --> I["Computer"]
    I --> J["On-Grid Home Load"]
    style A fill:#f9f,stroke:#333
    style F fill:#ccf,stroke:#333


graph TD
    A["On-Load + AC couple"] --> B["Solar"]
    A --> C["Battery"]
    A --> D["Smart Load"]
    B --> E["On-Grid Home Load"]
    C --> E
    D --> E
    E --> F["CT"]
    F --> G["Grid"]
    H["AC cable DC cable"] --> I["On-Grid Inverter"]
    I --> J["Backup Load"]


graph TD
    A["On-Grid+AC couple"] --> B["Solar"]
    A --> C["Battery"]
    A --> D["Smart Load"]
    B --> E["DC cable DC cable"]
    C --> F["DC cable DC cable"]
    D --> G["DC cable DC cable"]
    E --> H["Backup Load"]
    F --> I["On-Grid Inverter"]
    F --> J["On-Grid Home Load"]
    G --> K["CT"]
    H --> L["Grid"]
    I --> L
    J --> L

 The 1st priority power of the system is always the PV power, then 2nd and 3rd priority power will be the battery bank or grid according to the settings. The last power backup will be the Generator if it is available.

7. Fault information and processing

The energy storage inverter is designed according to the grid-connected operation standard and meets the safety requirements and electromagnetic compatibility requirements. Before leaving the factory, the inverter undergoes several rigorous tests to ensure that the inverter can operate reliably.  If any of the fault messages listed in Table 7-1 appear on your inverter and the fault has not been removed after restarting, please contact your local dealer or service center. You need to have the following information ready. 1. Inverter serial number; 2. Distributor or service center of the inverter ; 3. On-grid power generation date; 4. The problem description (including the fault code and indicator status displayed on the LCD) is as detailed as possible. 5. Your contact information. In order to give you a clearer understanding of the inverter's fault information, we will list all possible fault codes and their descriptions when the inverter is not working properly.

Error code	Description Solutions
F08 GFDI _Relay_Failure		When inverter is in Split phase(120/240Vac) or three-phase system (120/208Vac) system, the backup load port N line needs to connect ground;If the fault still exists, please contact us for help.
F13 Working mode change		When the grid type and frequency changed it will report F13;When the battery mode was changed to “No battery” mode, it will report F13;For some old FW version, it will report F13 when the system work mode changed;Generally, it will disappear automatically when shows F13;If still same, and turn off the DC switch and AC switch and wait for one minute and then turn on the DC/AC switch;Seek help from us, if can not go back to normal state.
F18	AC over current fault of hardware	AC side over current faultPlease check whether the backup load power and common load power are within the range;Restart and check whether it is in normal;Seek help from us, if can not go back to normal state.
F20	DC over current fault of the hardware	DC side over current faultCheck PV module connect and battery connect;When in the off-grid mode, the inverter startup with big power load, it may report F20. Please reduce the load power connected;Turn off the DC switch and AC switch and then wait one minute,then turn on the DC/AC switch again;Seek help from us, if can not go back to normal state.
F22	Tz_EmergStop_Fault	Please contact your installer for help.
F23	AC leakage current is transient over current	Leakage current faultCheck PV side cable ground connection.Restart the system 2~3 times.If the fault still exists, please contact us for help.
F24	DC insulation impedance failure	PV isolation resistance is too lowCheck the connection of PV panels and inverter is firmly and correctly;Check whether the PE cable of inverter is connected to ground;Seek help from us, if can not go back to normal state.
F26	The DC busbar is unbalanced	Please wait for a while and check whether it is normal;When the hybrid in split phase mode, and the load of L1 and load of L2 is big different, it will report the F26.Restart the system 2~3 times.Seek help from us, if can not go back to normal state.
F29 Parallel CANBus fault		When in parallel mode, check the parallel communication cable connection and hybrid inverter communication address setting;During the parallel system startup period, inverters will report F29 when all inverters are in ON status, it will disappear automatically;If the fault still exists, please contact us for help.
F34 AC	Overcurrent fault	1. Check the backup load connected, make sure it is in allowed power range;2. If the fault still exists, please contact us for help.
F35 No AC grid		No Utility1. Please confirm grid is lost or not;2. Check the grid connection is good or not;3. Check the switch between inverter and grid is on or not;4. Seek help from us, if can not go back to normal state.
F41 Parallel system stop		1. Check the hybrid inverter working status. If there's 1 pcs hybrid inverter is in OFF status, the other hybrid inverters may report F41 fault in parallel system.2. If the fault still exists, please contact us for help.
F42 AC line low voltage		Grid voltage fault1. Check the AC voltage is in the range of standard voltage in specification;2. Check whether grid AC cables are firmly and correctly connected;3. Seek help from us, if can not go back to normal state.
F47 AC over frequency		Grid frequency out of range1. Check the frequency is in the range of specification or not;2. Check whether AC cables are firmly and correctly connected;3. Seek help from us, if can not go back to normal state.
F48 AC lower frequency		Grid frequency out of range1. Check the frequency is in the range of specification or not;2. Check whether AC cables are firmly and correctly connected;3. Seek help from us, if can not go back to normal state.
F56	DC busbar voltage is too low	Battery voltage low1. Check whether battery voltage is too low;2. If the battery voltage is too low, using PV or grid to charge the battery;3. Seek help from us, if can not go back to normal state.
F58 BMS communication fault		1. it tells the communication between hybrid inverter and battery BMS disconnected when"BMS_Err-Stop" is active;2. if don't want to see this happen, you can disable "BMS_Err-Stop" item on the LCD;3. If the fault still exists, please contact us for help.
F63 ARC fault		1. ARC fault detection is only for US market;2. Check PV module cable connection and clear the fault;3. Seek help from us, if can not go back to normal state.
F64	Heat sink high temperature failure	Heat sink temperature is too high1. Check whether the work environment temperature is too high;2. Turn off the inverter for 10mins and restart;3. Seek help from us, if can not go back to normal state.

Chart 7-1 Fault information Under the guidance of our company, customers return our products so that our company can provide service of maintenance or replacement of products of the same value. Customers need to pay the necessary freight and other related costs. Any replacement or repair of the product will cover the remaining warranty period of the product. If any part of the product or product is replaced by the company itself during the warranty period, all rights and interests of the replacement product or component belong to the company. Factory warranty does not include damage due to the following reasons: - Damage during transportation of equipment; - Damage caused by incorrect installation or commissioning; - Damage caused by failure to comply with operation instructions, installation instructions or maintenance instructions; - Damage caused by attempts to modify, alter or repair products; - Damage caused by incorrect use or operation; - Damage caused by insufficient ventilation of equipment; - Damage caused by failure to comply with applicable safety standards or regulations; - Damage caused by natural disasters or force majeure (e.g. floods, lightning, overvoltage, storms, fires, etc.) In addition, normal wear or any other failure will not affect the basic operation of the product. Any external scratches, stains or natural mechanical wear does not represent a defect in the product.

8. Limitation of Liability

In addition to the product warranty described above, the state and local laws and regulations provide financial compensation for the product's power connection (including violation of implied terms and warranties). The company hereby declares that the terms and conditions of the product and the policy cannot and can only legally exclude all liability within a limited scope. 9. Datasheet

Model	SUN-5K-SG02LP2-US-AM2	SUN-6K-SG02LP2-US-AM2	SUN-7.6K-SG02LP2-US-AM2	SUN-8K-SG02LP2-US-AM2	SUN-10K-SG02LP2-US-AM3	SUN-12K-SG02LP2-US-AM3
Battery Input Data
Battery Type	Lead-acid or Lithium-ion
Battery Voltage Range(V)	40-60
Max. Charging Current(A)	120 135 190 190 220 250
Max. Discharging Current(A)	120 135 190 190 220 250
Charging Strategy for Li-Ion Battery	Self-adaption to BMS
Number of Battery Input	1
PV String Input Data
Max. PV Input Power(W)	7500 90 00 11400 12000 15000			18000
Max. PV Input Voltage(V)	500
Start-up Voltage(V)	125
	125-500PV Input Voltage Range(V)
MPPT Voltage Range(V)	150-425
Full Load MPPT Voltage Range(V)	300-425 200-425
Rated PV Input Voltage(V)	370
Max. Operating PV Input Current(A)	20+20 26+26+26		26+26
Max. Input Short-Circuit Current(A)	44+44		44+44		44+44+44
No. of MPP Trackers/No. of Strings MPP Tracker	2/2+2				3/2+2+2
Max. Inverter Backfeed Current to The Array	0
AC Input/Output Data
Rated AC Input/Output Active Power(W)	5000 60 00 7600 80 00 10000 12 000
Max. AC Input/Output Apparent Power(VA)	5000 60 00 7600 80 00 10000 12 000
Peak Power (off-grid)(W)	2 times of rated power, 10s
Rated AC Input/Output Current(A)	20.9 25 31.7 33.4 4 1.7 50
Max. AC Input/Output Current(A)	20.9 25 31.7 33.4 4 1.7 50
Max. Continuous AC Passthrough (grid to load)(A)	35 40 50 50 60 60
Rated Input/Output Voltage/Range(V)	120/240V; 208V 0.88Un-1.1Un
Grid Connection Form	2L+N+PE
Rated Input/Output Grid Frequency/Range	60Hz/55Hz-65Hz
Power Factor Adjustment Range	0.9-1
Total Current Harmonic Distortion THDi	<3% (of nominal power)
DC Injection Current	<0.5%In
Efficiency
Max. Efficiency	97.60%
CEC Efficiency	96.50%
MPPT Efficiency	>99%
Equipment Protection
DC Polarity Reverse Connection Protection	Yes
AC Output Overcurrent Protection	Yes
AC Output Overvoltage Protection	Yes
AC Output Short Circuit Protection	Yes
Thermal Protection	Yes
DC Terminal Insulation Impedance Monitoring	Yes
DC Component Monitoring	Yes
Ground Fault Current Monitoring	Yes
Arc fault circuit interrupter (AFCI) Optional
Power Network Monitoring	Yes
Island Protection Monitoring	Yes
Earth Fault Detection	Yes
DC Input Switch	Yes
Overvoltage Load Drop Protection	Yes
Residual Current (RCD) Detection	Yes
Surge Protection Level	TYPE II(DC), TYPE II(AC)
Interface
Display LCD+LED
Communication Interface RS232, RS485, CAN
Monitor Mode	GPRS/WIFI/Bluetooth/4G/LAN(optional)
General Data
Operating Temperature Range	-40 to +60°C, >45°C Derating
Permissible Ambient Humidity	0-100%
Permissible Altitude	2000m
Noise	<45 dB
Ingress Protection(IP) Rating	NEMA 3R, IP65
Inverter Topology	Non-Isolated
Over Voltage Category	OVC II(DC), OVC IV(AC)
Cabinet size(W*H*D) [mm]	420W×670H×233D (Excluding connectors and brackets)
Weight(kg)	35.6
Warranty	5 Years/10 Yearsthe Warranty Period Depends the Final Installation Site of Inverter, More Info Please Refer to Warranty Policy
Type of Cooling	Intelligent Air Cooling
Grid Regulation	IEEE 1547.1,SRD V2.0
Safety EMC/Standard	FCC,UL 1741

10. Appendix I

SUN-(5-8)K-SG02LP2-US-AM2 Definition of RJ45 Port Pin for BMS

No. BMS Pin
1	485_B
2	485_A
3	GND_485
4	CAN-H
5	CAN-L
6	GND_485
7	485_A
8	485_B

BMS Port  

Diagram of a connector with a circular outline, no text or symbols present

This port is used to connect the energy meter. Note: some hardware versions hybrid inverter don't support conencting the energy meter

No. Meter_CON Pin
1	SUNSPE-485_B
2	SUNSPE-485_A
3	--
4	--
5	--
6	--
7	SUNSPE-485_A
8	SUNSPE-485_B

Meter\_CON port  

Technical line drawing of a mechanical component enclosed in a circle (no text or symbols)

No. DRM	Pin
1	DRM1/5
2	DRM2/6
3	DRM3/7
4	DRM4/8
5	REF-GEN/0
6	D-GND
7	NetJ4_7
8	NetJ4_7

DRM Port  

Simple line drawing of a connector or connector with no text or symbols

SUN-(10-12)K-SG02LP2-US-AM3 Definition of RJ45 Port Pin for BMS

No.	BMS 485/CAN Pin
1	485_B
2 485_A
3 GND_485
4	CAN-H
5	CAN-L
6 GND_485
7 485_A
8 485_B

BMS 485/CAN Port  

Pure electrical connector diagram without any text or symbols

This port is used to connect the energy meter.

No.	Meter Pin
1	METERB
2 METERA
3	--
4	METERB
5	METERA
6 GND_2
7 METERA
8 METERB

Meter\_CON Port  

Technical line drawing of a mechanical component enclosed in a circle (no text or symbols)

No. DRM	Pin
1	DRM1/5
2	DRM2/6
3	DRM3/7
4	DRM4/8
5	REF-GEN/0
6	D-GND
7	NetJ4_7
8	NetJ4_7

DRM Port  

Pure mechanical component diagram without any text, numbers, or symbols

RS232

No.	WIFI/RS232
1
2	TX
3	RX
4
5	D-GND
6
7
8
9	12Vdc

 WIFI/RS232 This RS232 port is used to connect the wifi datalogger

11. Appendix II

1. Split Core Current Transformer (CT) dimension: (mm) 2. Secondary output cable length is 4m.  

NINGBO DEYE INVERTER TECHNOLOGY CO., LTD.

Add.: No.26 South YongJiang Road, Daqi, Beilun, NingBo, China. Tel.: [phone] Fax.: [phone] E-mail: [e-mail] Web.: www.deyeinverter.com