Deye SG01LP1 SUN 5-8 K Hybrid Inverter

Product Information

Specifications:

• Product Name: Hybrid Inverter
• Functions: Inverter, Solar Charger, Battery Charger
• Size: Portable
• Display: LCD
• Input Voltage: AC/Solar
• Input Terminals: DC
• Ports: RS 485, CAN, Function, Meter_CON, Parallel
• MPPT: 2
• Input Sources: PV, Grid, Generator

Product Usage Instructions

Safety Introductions

Safety signs:

• The DC input terminals of the inverter must not be grounded.
• 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.
• Surface high temperature, Please do not touch the inverter case.
• Prohibit disassembling inverter case, there existing shock hazard, which may cause serious injury or death, please ask qualified person to repair.
• Please read the instructions carefully before use.
• Do Not put it in the waste bin! Recycle it by licensed professional!

Product Introductions

This is a multifunctional inverter, combining functions of inverter, solar charger, and battery charger to offer uninterrupted 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.

Product Overview

1. Inverter Indicators
2. LCD display
3. Function Buttons
4. DC Switch
5. Power on/off button
6. RS 485 port
7. CAN Port
8. Battery input connectors
9. Function Port
10. Meter_CON port
11. Parallel port
12. PV input with two MPPT
13. Grid
14. Generator input

Installation

Installation instructions can be found in the user manual pages 05-29. The instructions include information on electrical connections, power supply, and safety precautions.

Operation

The operation of the hybrid inverter is explained in detail on page 30 of the user manual. It includes information on how to turn on/off the inverter, battery charging, and AC/solar charging.

LCD Display Icons

The meaning and function of each LCD display icon can be found on pages 31-43 of the user manual. The icons represent various statuses and settings of the inverter.

Mode

Different modes of operation are explained on pages 43-45 of the user manual. These modes include battery mode, solar mode, and AC mode.

Fault Information and Processing

Information on fault detection, troubleshooting, and processing can be found on pages 45-48 of the user manual. This section provides guidance on identifying and resolving common issues.

Limitation of Liability

This section on page 48 of the user manual explains the limitation of liability for any damages or malfunctions caused by the hybrid inverter.

Datasheet

The technical specifications and performance data of the hybrid inverter can be found on pages 49-50 of the user manual. This provides detailed information for reference.

Appendix I
Additional information and resources can be found in Appendix I on pages 51-52 of the user manual.

Appendix II
Further details and supplementary information can be found in Appendix II on page 53 of the user manual.

FAQ

Q: Where can I obtain the latest version of the manual?

A: The latest manual can be acquired via service@deye.com.cn

R
Hybrid Inverter

User Manual

About This Manual

The manual mainly describes the product informaon, guidelines for installaon, operaon and maintenance. The manual cannot include complete informaon about the photovoltaic (PV) system.
How to Use This Manual
Read the manual and other related documents before performing any operaon on the inverter. Documents must be stored carefully and be available at all mes. Contents may be periodically updated or revised due to product development. The informaon in this manual is subject to change without noce. The latest manual can be acquired via service@deye.com.cn

Safety Introductions

Safety signs

The DC input terminals of the inverter must not be grounded.
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.

Surface high temperature, Please do not touch the inverter case.
Prohibit disassembling inverter case, there exisng shock hazard, which may cause serious injury or death, please ask qualified person to repair.

Please read the instrucons carefully before use.

Do Not put it in the waste bin! Recycle it by licensed professional!

· This chapter contains important safety and operang instrucons. Read and keep this manual for future reference.
· Before using the inverter, please read the instrucons and warning signs of the baery and corresponding secons in the instrucon 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 aempng any maintenance or cleaning. Turning off the unit will not reduce this risk. · Cauon: Only qualified personnel can install this device with baery. · Never charge a frozen baery. · For opmum operaon of this inverter, please follow required specificaon to select appropriate cable size. It is very important to correctly operate this inverter. · Be very cauous when working with metal tools on or around baeries. Dropping a tool may cause a spark or short circuit in baeries or other electrical parts, even cause an explosion. · Please strictly follow installaon procedure when you want to disconnect AC or DC terminals. Please refer to “Installaon” secon of this manual for the details. · Grounding instrucons – this inverter should be connected to a permanent grounded wiring system. Be sure to comply with local requirements and regulaon 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 Introducons
This is a mulfunconal inverter, combining funcons of inverter, solar charger and baery charger to offer uninterrupble power support with portable size. Its comprehensive LCD display offers user configurable and easy accessible buon operaon such as baery charging, AC/solar charging, and acceptable input voltage based on different applicaons.
2.1 Product Overview

1 2 3 4
5
8
9 10 11 12 17
1: Inverter Indicators 2: LCD display 3: Funcon Buons 4: DC Switch 5: Power on/off buon 6: RS 485 port

6 7
15 14 13
16

7: CAN Port 8: Baery input connectors 9: Funcon Port 10: Meter_CON port 11: Parallel port 12: PV input with two MPPT

13: Grid
14: Generator input
15: Load
16: WiFi Interface
17: DRMs Port (*Note: For US model, it doesn’t have this port)

Product Size
Inverter Size

Product Features
– Supports Split phase 120/240Vac, Three-phase 120/208Vac system. – Self- consumpon and feed-in to the grid. – Auto restart while AC is recovering. – Programmable supply priority for baery or grid. – Programmable mulple operaon modes: On grid, off grid and UPS. – Configurable baery charging current/voltage based on applicaons by LCD seng. – Configurable AC/Solar/Generator Charger priority by LCD seng. – Compable with mains voltage or generator power. – Overload/over temperature/short circuit protecon. – Smart baery charger design for opmized baery performance – With limit funcon, prevent excess power overflow to the grid. – Supporng WIFI monitoring and build-in 2 strings of MPP trackers – Smart seable three stages MPPT charging for opmized baery performance. – Time of use funcon. – Smart Load Funcon.
2.4 Basic System Architecture
The following illustraon shows basic applicaon of this inverter. It also includes following devices to have a Complete running system. – Generator or Ulity – 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 condioner.

WiFI GPRS

Cloud services

AC cable DC cable phone

Solar

Backup Load

On-Grid Home Load

Grid CT

Battery

Smart Load

Grid-connected Inverter

Generator ATS

Installaon

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

Hybrid inverter x1

Stainless steel an-collision bolt M8×80 x4

Parallel communicaon cable x1

L-type Hexagon wrench x1

User manual
User manual x1

Wi-Fi-Plug(oponal) x1

Baery temperature sensor x1

Sensor Clamp US x2 / EU x1

Magnec ring for baery x 1

Magnec ring for BMS communicaon cable
x 1

3.2 Mounng instrucons Installaon Precauon
This Hybrid inverter is designed for outdoor use(IP65), Please make sure the installaon site meets below condions: · Not in direct sunlight · Not in areas where highly flammable materials are stored. · Not in potenal explosive areas. · Not in the cool air directly. · Not near the television Antenna or antenna cable. · Not higher than altude of about 2000 meters above sea level. · Not in environment of precipitaon or humidity(>95%) Please AVOID direct sunlight, rain exposure, snow laying up during installaon and operaon. Before connecng all wires, please take off the metal cover by removing screws as shown below:
Considering the following points before selecng where to install:
· Please select a vercal wall with load-bearing capacity for installaon, suitable for installaon on concrete or other non-flammable surfaces,installaon is shown below. · Install this inverter at eye level in order to allow the LCD display to be read at all mes. · The ambient temperature is recommeded to be between -40~60¥ to ensure opmal operaon. · Be sure to keep other objects and surfaces as shown in the diagram to guarantee sufficient heat dissipaon and have enough space for removing wires.

500mm
500mm
For proper air circulaon 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.
Mounng the inverter
Remember that this inverter is heavy! Please be careful when liing 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 mounng.

1
NN JO

2

3

_NN < JO
UP JO

3.3 Baery connecon
For safe operaon and compliance, a separate DC over-current protector or disconnect device is required between the baery and the inverter. In some applicaons, switching devices may not be required but over-current protectors are sll required. Refer to the typical amperage in the table below for the required fuse or circuit breaker size.

Model 5/6kW 7.6/8kW

Wire Size 2AWG 1AWG

Cable(mm 2 ) 35 50

Chart 3-2 Cable size

Torque value(max) 24.5Nm 24.5Nm

All wiring must be performed by a professional person.
Connecng the baery with a suitable cable is important for safe and efficient operaon of the system. To reduce the risk of injury, refer to Chart 3-2 for recommended cables. Please follow below steps to implement baery connecon: 1. Please choose a suitable baery cable with correct connector which can well fit into the baery terminals. 2. Use a suitable screwdriver to unscrew the bolts and fit the baery connectors in, then fasten the bolt by the screwdriver, make sure the bolts are ghtened with torque of 24.5 N.M in clockwise direcon 3. Make sure polarity at both the baery and inverter is correctly connected.

30mm

30mm
For 7.6kW/8kW model, baery connector screw size: M10
22mm

10.5mm

DC Baery Input

Pass the baery power cable through the magnec ring and wrap it around the magnec ring two mes.

Pass the BMS communicaon cable through the magnec ring and wrap it around the magnec ring four mes.

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

Installaon must be performed with care.

Before making the final DC connecon or closing DC breaker/disconnect, be sure posive(+) must be connect to posive(+) and negave(-) must be connected to negave(-). Reverse polarity connecon on baery will damage the inverter.

3.3.2 Funcon port definion

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communicaon. CAN: CAN port for baery communicaon. Parallel A: Parallel communicaon port 1 CAN interface Parallel B: Parallel communicaon port 2 CAN interface

DRMs: for Australia market only.

$5-

(*Note: For US model, it doesn’t have

TEMP (1,2): baery temperature sensor for

this port)

lead acid baery.

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 acve, the open contact (GS) will switch on (no voltage output).

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G-valve (9,10): reserved. RSD (11,12): provide 12Vdc output when
inverter is on.

(

4

GS (diesel generator startup signal)

ATS: 230V output port when inverter is on

Note: For – EU model (7.6/8kW,230V@50Hz),

1pcs CT is needed only, and the secondary

side of the CT should be connected to

5&6 port (CT-L2).

3.3.3 Temperature sensor connecon for lead-acid baery

5FNQTFOTPS

3.4 Grid connecon and backup load connecon
· Before connecng 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. The recommended of AC breaker is 40A for 5kW and 63A for 8kW.
· There are three terminal blocks with “Grid” “Load”and “GEN” markings. Please do not misconnect input and output connectors.
All wiring must be performed by a qualified personnel.It is very important for system safety and efficient operaon to use appropriate cable for AC input connecon. To reduce risk of injury, please use the proper recommended cable as below.

Model

Wire Size

Cable(mm 2 )

Torque value(max)

5/6kW

12AWG

4

7.6/8kW

10AWG

6

1.2Nm 1.2Nm

Chart 3-3 Recommended Size for AC wires
Please follow below steps to implement AC input/output connecon:
1. Before making Grid, load and Gen port connecon, be sure to turn off AC breaker or disconnector first.
2. Remove insulaon sleeve 10mm length, unscrew the bolts, insert the wires according to polaries indicated on the terminal block and ghten the terminal screws. Make sure the connecon is complete.

3FHJPO&6

GRID GEN PORT LOAD

GRID

NL

GEN PORT

NL

3FHJPO64

LOAD

NL

L1 N L2
GRID

L1 N L2
GEN PORT

L1 N L2
LOAD

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

3. Then, insert AC output wires according to polaries indicated on the terminal block and ghten terminal. Be sure to connect corresponding N wires and PE wires to related terminals as well.
4. Make sure the wires are securely connected. 5. Appliances such as air condioner are required at least 2-3 minutes to restart because it is
required to have enough me to balance refrigerant gas inside of circuit. If a power shortage occurs and recovers in short me, it will cause damage to your connected appliances. To prevent this kind of damage, please check manufacturer of air condioner if it is equipped with me-delay funcon before installaon. Otherwise, this inverter will trigger overload fault and cut off output to protect your appliance but somemes it sll causes internal damage to the air condioner
3.5 PV Connecon
Before connecng to PV modules, please install a separately DC circuit breaker between inverter and PV modules. It is very important for system safety and efficient operaon to use appropriate cable for PV module connecon. To reduce risk of injury, please use the proper recommended cable size as below.

Model 5/6/7.6/8kW

Wire Size 12AWG Chart 3-4 Cable size

Cable(mm2 ) 4

To avoid any malfuncon, 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- o f solar panel is not connected to the system ground bar.
It is requested to use PV juncon box with surge protecon. Otherwise, it will cause damage on inverter when lightning occurs on PV modules.

3.5.1 PV Module Selecon:
When selecng 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 rang cerfied according
   to lEC 61730.

Inverter Model

5kW

6kW

7.6kW

8kW

PV Input Voltage

370V (125V~500V)

PV Array MPPT Voltage Range No. of MPP Trackers

150V-425V 2

No. of Strings per MPP Tracker

1+1

2+1

2+2

Chart 3-5

PV Module Wire Connecon:
Please follow below steps to implement PV module connecon: 1. Remove insulaon sleeve 10 mm for posive and negave conductors. 2. Suggest to put bootlace ferrules on the end of posive and negave wires with a proper
crimping tool. 3. Check correct polarity of wire connecon from PV modules and PV input connectors. Then,
connect posive pole (+) of connecon wire to posive pole (+) of PV input connector. Connect negave pole (-) of connecon wire to negave pole(-)of PV input connector. Close the switch and make sure the wires are ghtly fixed.

3.6 CT Connecon
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3.6.1 Meter Connecon
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Grid input
12

Output
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System connecon diagram for the Eastron meter

1

2

230V/2T

Input
13

Output
24

L

L

N

N

5 6 7 8 9 10 A B GND 1+COM 2+

3

4

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RS 485 GND
56 7
A B GND

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230V/2T

5 6 7 8 9 10 A B GND 1+COM 2+

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Note: When the inverter is in the off-grid state, the N line needs to be connected to the earth. Note: In final installaon,breaker cerfied according to IEC 60947-1 and IEC 60947-2 shall be installed with the equipment. 3.7 Earth Connecon(mandatory) Ground cable shall be connected to ground plate on grid side, this prevents electric shock if the original protecve conductor fails.
3.8 WIFI Connecon
For the configuraon of Wi-Fi Plug, please refer to illustraons of the Wi-Fi Plug. The Wi-Fi Plug is not a standard configuraon, it’s oponal.

3.9 Wiring System for Inverter

(Region:EU)

DC Breaker
PV
BMS
Battery
DC Breaker AC Breaker Diesel generator

This diagram is an example for grid systems without special requirements on electrical wiring connecon. Note: The back-up PE line and earthing bar must be grounded properly and effecvely. Otherwise the back-up funcon may be abnormal when the grid fails.

Hybrid Inverter

L N PE Load CT

L N PE Grid

AC Breaker

AC Breaker

AC Breaker CT

E-BAR

L
N Load
PE
L
N Grid
PE

E-BAR

L N PE
Home Loads

DC Breaker
PV
BMS
Battery
DC Breaker AC Breaker Diesel generator

This diagram is an example for applicaon that Neutral connects together with PE in distribuon box. Such as: Australia, New Zealand, South Africa, etc. (Please follow local wiring regulaons!)

Hybrid Inverter

L N PE or Load CT

L N PE Grid

AC Breaker
Do not connect this terminal when the neutral wire and PE wire are connected together.
AC Breaker CT

E-BAR

AC Breaker
N-BAR E-N Link
E-BAR

L
N Load
PE
L
N Grid
PE

L N PE
Home Loads

(Region:US)

PV

DC Breaker

BMS

Battery
DC Breaker

GEN PORT

AC Breaker
L1 L2 N PE

L1 L2 N PE or
Load

Hybrid Inverter

CT
L1 L2 N PE
Grid

AC Breaker

AC Breaker

AC Breaker CT1 CT2

E-BAR

E-N LINK
E-BAR

L1 L2 N PE
Home Loads

L1 L2
N Load
PE
L1 L2
N Grid
PE

3.10 Typical applicaon diagram of diesel generator

(Region:EU)

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

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3.11 Single phase (230Vac) parallel connecon diagram

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Advanced Function

Parallel Master Slave

Modbus SN 01

A Phase B Phase C Phase

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Parallel Master Slave

Modbus SN 02

A Phase B Phase C Phase

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Parallel Master Slave

Modbus SN 03

A Phase B Phase C Phase

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

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Advanced Function

Parallel Master Slave

Modbus SN 01

A Phase B Phase C Phase

Paral. Set3

Advanced Function

Parallel Master Slave

Modbus SN 02

A Phase B Phase C Phase

Paral. Set3

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Parallel Master Slave

Modbus SN 03

A Phase B Phase C Phase

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Advanced Function

Parallel Master Slave

Modbus SN 01

A Phase B Phase C Phase

Paral. Set3

Advanced Function

Parallel Master Slave

Modbus SN 02

A Phase B Phase C Phase

Paral. Set3

4MBWF*OWFSUFS

Advanced Function

Parallel Master Slave

Modbus SN 03

A Phase B Phase C Phase

Paral. Set3

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Advanced Function

Parallel Master Slave

Modbus SN 01

A Phase B Phase C Phase

Paral. Set3

Advanced Function

Parallel Master Slave

Modbus SN 02

A Phase B Phase C Phase

Paral. Set3

BDLVQ-PBE

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Advanced Function

Parallel Master Slave

Modbus SN 03

A Phase B Phase C Phase

Paral. Set3

(SJE

(Region:EU)

3.14 pcs Parallel connecon for 120/208 three phase

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Advanced Function

Parallel Master Slave

Modbus SN 01

A Phase B Phase C Phase

Paral. Set3

Advanced Function

Parallel Master Slave

Modbus SN 02

A Phase B Phase C Phase

Paral. Set3

(Region:US)

3.15 Parallel connecon for 120/208 three phase (Region:US)

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Advanced Function

Parallel Master Slave

Modbus SN 01

A Phase B Phase C Phase

Paral. Set3

Advanced Function

Parallel Master Slave

Modbus SN 02

A Phase B Phase C Phase

Paral. Set3

$1IBTF.BTUFSJOWFSUFS

Advanced Function

Parallel Master Slave

Modbus SN 03

A Phase B Phase C Phase

Paral. Set3

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Parallel Master Slave

Modbus SN 01

A Phase B Phase C Phase

Paral. Set3

Advanced Function

Parallel Master Slave

Modbus SN 02

A Phase B Phase C Phase

Paral. Set3

BDLVQ-PBE

$1IBTF.BTUFSJOWFSUFS

Advanced Function

Parallel Master Slave

Modbus SN 03

A Phase B Phase C Phase

Paral. Set3

(Region:EU)

OPERATION

Power ON/OFF
Once the unit has been properly installed and the baeries are connected well, simply press On/Off buon(located on the le side of the case) to turn on the unit. When system without baery connected, but connect with either PV or grid, and ON/OFF buon is switched off, LCD will sll light up(Display will show OFF), In this condion, when switch on ON/OFF buon and select NO baery,system can sll working.
4.2 Operaon and Display Panel
The operaon and display panel, shown in below chart, is on the front panel of the inverter. It includes four indicators, four funcon keys and a LCD display, indicang the operang status and input/output power informaon.

DC AC Normal Alarm

LED Indicator Green led solid light Green led solid light Green led solid light Red led solid light

Messages PV Connecon normal Grid Connecon normal Inverter operang normal Malfuncon or warning

Chart 4-1 LED indicators

Function Key Esc Up
Down Enter

Description To exit seng mode To go to previous selecon To go to next selecon To confirm the selecon
Chart 4-2 Funcon Buons

LCD Display Icons

Main Screen

The LCD is touchscreen, below screen shows the overall informaon of the inverter.
05/28/2019 15:34:40

0 8.30 12

KW

ON

25%

0 -2.00 8 KW

0 -3.00 8 KW
0 3.00 8 KW

1.The icon in the center of the home screen indicates that the system is Normal operaon. If it turns into “comm./F01~F64” , it means the inverter has communicaon 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 me.
3.System Setup Icon, Press this set buon,you can enter into the system setup screen which including Basic Setup, Baery Setup, Grid Setup, System Work Mode, Generator port use, Advanced funcon and Li-Ba info.
4.The main screen showing the info including Solar, Grid, Load and Baery. Its also displaying the energy flow direcon 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.
· PV power and Load power always keep posive. · Grid power negave means sell to grid, posive means get from grid. · Baery power negave means charge, posive means discharge.

5.1.1 LCD operaon flow chart

.BJO4DSFFO

4PMBS1BHF (SJE1BHF *OWFSUFS1BHF #BUUFSZ1BHF -PBE1BHF

4ZTUFN4FUVQ

4PMBS(SBQI (SJE(SBQI

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BTJD4FUUJOH “EWBODFE’VODUJPO %FWJDFJOGP

5.2 Solar Power Curve

Solar
Power: 2923W PV1-V: 0V PV1-I: 0A
P1: 0W

Grid Tie Power: 2923W

PV2-V: 0V
PV2-I: 0.1A

P2: 0W

Today=0.3 KWH

Total =3.90 KWH

Energy

This is Solar Panel detail page. Solar Panel Generaon.
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.
Voltage, Current, Power for each MPPT.
Solar Panel energy for Day and Total. Press the “Energy “buon will enter into the power curve page.

Inverter
Power: 44W 0.0Hz
L1: 240V l1:0.6A

DC-T:52.6C AC-T:41.0C

This is Inverter detail page.

Inverter Generaon. 0.0Hz: frequency aer DC/AC.

Voltage, Current, Power for each Phase.

*DC-T: mean DC-DC temperature,

AC-T: mean Heat-sink temperature.

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

Load
Power: 0W L: 0V

This is Load detail page.

Load Power.
Today=0.0 KWH Voltage, Power for each Phase.

Total =0.40 KWH

Load consumpon for Day and Total.

Energy

When you check “Selling First” or “Zero export to Load” on system work mode page, the informaon 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 informaon on this page is including backup load and home load. Press the “Energy ” buon will enter into the power curve page.

Grid

This is Grid detail page.

Stand-by

Power: 0W

0.0Hz
L1: 0V L2: 0V
CT1: 0W CT2: 0W

BUY

Today=2.2KWH

Total =11.60 KWH

SELL

Today=0.0KWH

Total =8.60 KWH

Status, Power, Frequency. L1&L2: Voltage for each Phase
CT1&CT2: External Current Sensor Power LD1&LD2: Internal Current Sensor Power.
BUY: Energy from Grid to Inverter, SELL: Energy from Inverter to Grid.

LD1: 0W LD2: 0W

Energy Press the “Energy ” buon will enter into the power curve page.

Batt
Stand-by SOC: 36% U:50.50V I:-58.02A Power: -2930W Temp:30.0C

Li-BMS

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

5.3 Curve Page-Solar & Load & Grid

Li-BMS

Mean Voltage:50.34V Charging Voltage :53.2V Total Current:55.00A Discharging Voltage :47.0V Mean Temp :23.5C Charging current :50A

Sum Data

Total SOC :38%

Discharging current :25A

Dump Energy:57Ah Request Force Charge

Details Data

Request Force Charge: It indicates the BMS requests hybrid inverter to charge the baery acvely.

Li-BMS

Volt Curr Temp

1 50.38V 19.70A 2 50.33V 19.10A 3 50.30V 16.90A 4 0.00V 0.00A 5 0.00V 0.00A 6 0.00V 0.00A 7 0.00V 0.00A 8 0.00V 0.00A 9 0.00V 0.00A 10 0.00V 0.00A 11 0.00V 0.00A 12 0.00V 0.00A 13 0.00V 0.00A 14 0.00V 0.00A 15 0.00V 0.00A

30.6C 31.0C 30.2C 0.0C 0.0C 0.0C 0.0C 0.0C 0.0C 0.0C 0.0C 0.0C 0.0C 0.0C 0.0C

SOC
52.0% 51.0% 12.0% 0.0% 0.0% 0.0% 0.0% 0.0% 0.0% 0.0% 0.0% 0.0% 0.0% 0.0% 0.0%

Energy
26.0Ah 25.5Ah 6.0Ah 0.0Ah 0.0Ah 0.0Ah 0.0Ah 0.0Ah 0.0Ah 0.0Ah 0.0Ah 0.0Ah 0.0Ah 0.0Ah 0.0Ah

Charge Fault Volt Curr 0.0V 0.0A 0|0|0 53.2V 25.0A 0|0|0 53.2V 25.0A 0|0|0 0.0V 0.0A 0|0|0 0.0V 0.0A 0|0|0 0.0V 0.0A 0|0|0 0.0V 0.0A 0|0|0 0.0V 0.0A 0|0|0 0.0V 0.0A 0|0|0 0.0V 0.0A 0|0|0 0.0V 0.0A 0|0|0 0.0V 0.0A 0|0|0 0.0V 0.0A 0|0|0 0.0V 0.0A 0|0|0 0.0V 0.0A 0|0|0

Sum Data
Details Data

Solar Power Production:Day

3000W 100%
80% 60% 40% 20%

2019-5-28

1 3 5 7 9 11 13 15 17 19 21 23

CANCEL

Day

Month

Year

Total

System Solar Power:Month

2000Wh

5-2019

2000

1600

1200

800

400

0 05 10 15 20 25 30

CANCEL

Day

Month

Year

Total

System Solar Power:Year

KWh 200 160 120 80 40

2019

1 2 3 4 5 6 7 8 9 10 11 12

CANCEL

Day

Month

Year

Total

System Grid Power:Total

2000KWh

TOTAL

2000

1600

1200

800

400

0 20 20 20 20 20 20 20 20 20 20 20 20 20 20 20 20 20 16 18 20 22 24 26 28 30 32 34 36 38 40 42 44 46 48

CANCEL

Day

Month

Year

Total

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

5.4 System Setup Menu
System Setup

Battery Setting
Basic Setting

System Work Mode

Grid Setting
Advanced Function

Gen Port Use
Device Info.

This is System Setup page.

5.5 Basic Setup Menu

Basic Setting

Time Syncs
Year
2019

Beep
Month
03

Auto Dim
Day
17

Basic Set

24-Hour

Hour
09

Minute
15

Factory Reset

Lock out all changes

Factory Reset: Reset all parameters of the inverter. Lock out all changes: Enable this menu for seng 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 seng. The password for factory sengs is 9999 and for lock
out is 7777.

PassWord

X–X–X–X

1

2

4

5

7

8

CANCEL

0

DEL 3 6 9 OK

Factory Reset Password: 9999
Lock out all changes Password: 7777
System selfchek: Aer cking this item, it needs input the password. The default password is 1234

5.6 Baery Setup Menu

Battery Setting

Baery capacity: it tells Deye hybrid inverter to know your baery bank size.

Batt Mode

Use Ba V: Use Baery Voltage for all the sengs (V).

Lithium Use Batt V

Batt Capacity Max A Charge

400Ah 40A

Use Ba %: Use Baery SOC for all the sengs (%). Batt Max. A charge/discharge: Max baery charge/discharge Mode current(0-90A for 3.6kW model, 0-120A for 5kW model,

Use Batt %

Max A Discharge 40A

0-135A for 6kW model, 0-190A for 7.6/8kW model). For AGM and Flooded, we recommend Ah baery

No Batt

size x 20%= Charge/Discharge amps.

Activate Battery

Disable Float Charge

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

. For Gel, follow manufacturer’ s instrucons.

No Ba: ck this item if no baery is connected to the

system.

Acve baery: This feature will help recover a baery that is over discharged by slowly charging from

the solar array or grid.

Disable Float Charge: For the lithium baery with BMS communicaon, 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 baery from being overcharged.

Battery Setting

Start

30%

A

40A

Gen Charge

Gen Signal

Gen Force

This is Baery Setup page.

30%
40A Grid Charge

Start =30%: Percent S.O.C at 30% system will AutoStart a connected generator to charge the baery bank.
Batt
Set2 A = 40A: Charge rate of 40A from the aached generator in Amps.

Grid Signal

Gen Charge: uses the gen input of the system to charge baery bank from an aached generator.
Gen Signal: Normally open relay that closes when the Gen Start signal state is acve.

This is Grid Charge, you need select.
Start =30%: No useJust for customizaon.
A = 40A: It indicates the Current that the Grid charges the Baery.
Grid Charge: It indicates that the grid charges the baery. Grid Signal: Disable.

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

07/08/2021 11:11:10 Thu

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

0 2.00 7 KW 76%
0 -1.39 5 KW

ON
Signal on

0 0.00 5 KW

0

2.00 KW

5

Generator
Power: 1392W L1: 228V
Freq:50.0Hz

Today=0.0 KWH Total =2.20 KWH

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

Battery Setting

Lithium Mode Shutdown Low Batt Restart

00 10% 20% 40%

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

Shutdown 10%: It indicates the inverter will shutdown

Batt Set3

if the SOC below this value.

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

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

Battery Setting

Float V

53.6V

Absorption V

57.6V

Shutdown

20%

Low Batt

35%

Restart

50%

Equalization V 57.6V Equalization Days 30 days

TEMPCO(mV/C/Cell)
-5

Equalization Hours 3.0 IPVST

Batt Resistance 25mOhms

There are 3 stages of charging the Baery .

This is for professional installers, you can keep it

Batt if you do not know.

Set3

Shutdown 20%:The inverter will shutdown if the SOC

below this value.

Low Ba 35%: The inverter will alarm if the SOC below this value.

Restart 50%: Baery SOC at 50% AC output will resume.

Recommended baery sengs

Battery Type
AGM (or PCC) Gel Wet
Lithium

Absorption Stage

Float Stage

Torque value (every 30 days 3hr )

14.2V (57.6V)

13.4V (53.6V)

14.2V (57.6V)

14.1V (56.4V)

13.5V (54.0V)

14.7V (59.0V)

13.7V (55.0V)

14.7V (59.0V)

Follow its BMS voltage parameters

5.7 System Work Mode Setup Menu

System Work Mode

Selling First Zero Export To Load

8000 Max Solar Power

Solar Sell

Work Mode1

Zero Export To CT

Solar Sell

Max Sell Power 8000 Zero-export Power 20

Energy pattern

BattFirst

LoadFirst

Grid Peak Shaving 8000 Power

Work Mode Selling First: This Mode allows hybrid inverter to sell back any excess power produced by the solar panels to the grid. If me of use is acve, the baery energy also can be sold into grid. The PV energy will be used to power the load and charge the baery and then excess energy will flow to grid. Power source priority for the load is as follows: 1. Solar Panels.
2. Grid.
3. Baeries (unl 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 baery.

Solar

Backup Load

On-Grid Home Load

Grid

Battery
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 baery 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 installaon method of the CT please refer to chapter 3.6 CT Connecon. 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 baery and home load.

Solar Battery

Backup Load

On-Grid Home Load

Grid CT

Solar Sell: “Solar sell” is for Zero export to load or Zero export to CT: when this item is acve, the surplus energy can be sold back to grid. When it is acve, PV Power source priority usage is as follows: load consumpon and charge baery 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 Paern: PV Power source priority. Ba First: PV power is firstly used to charge the baery and then used to power the load. If PV power is insufficient, grid will make supplement for baery and load simultaneously. Load First: PV power is firstly used to power the load and then used to charge the baery. If PV power is insufficient, grid will make supplement for baery and load simultaneously. Max Solar Power: allowed the maximum DC input power Grid Peak-shaving: when it is acve, grid output power will be limited within the set value. If the load power exceeds the allowed value, it will take PV energy and baery as supplement. If sll can’t meet the load requirement, grid power will increase to meet the load needs.

System Work Mode

Grid Charge Gen

Time Of Use Time Power Batt 01:00 5:00 5000 49.0V 05:00 9:00 5000 50.2V 09:00 13:00 5000 50.9V 13:00 17:00 5000 51.4V 17:00 21:00 5000 47.1V 21:00 01:00 5000 49.0V

System Work Mode

Grid Charge Gen

Time Of Use Time Power Batt 01:00 5:00 5000 80% 05:00 8:00 5000 40% 08:00 10:00 5000 40% 10:00 15:00 5000 80% 15:00 18:00 5000 40% 18:00 01:00 5000 35%

Work Mode2
Work Mode2

Time of use: it is used to program when to use grid or generator to charge the baery, and when to discharge the baery to power the load. Only ck “Time Of Use” then the follow items (Grid, charge, me, power etc.) will take effect. Note: when in selling first mode and click me of use, the baery power can be sold into grid. Grid charge: ulize grid to charge the baery in a me period. Gen charge: ulize diesel generator to charge the baery in a me period. Time: real me, range of 01:00-24:00. Power: Max. discharge power of baery allowed. Ba(V or SOC %): baery SOC % or voltage at when the acon is to happen.
For example: During 01:00-05:00, when baery SOC is lower than 80%, it will use grid to charge the baery unl baery SOC reaches 80%.
During 05:00-08:00 and 08:00-10:00, when baery SOC is higher than 40%, hybrid inverter will discharge the baery unl the SOC reaches 40%.
During 10:00-15:00, when baery SOC is higher than 80%, hybrid inverter will discharge the baery unl the SOC reaches 80%.
During 15:00-18:00, when baery SOC is higher than 40%, hybrid inverter will discharge the baery unl the SOC reaches 40%.
During 18:00-01:00, when baery SOC is higher than 35%, hybrid inverter will discharge the baery unl the SOC reaches 35%.

System Work Mode
Mon Tue Wed Thu Fri

Sat Sun
Work Mode4

It allows users to choose which day to execute the seng of “Time of Use”. For example, the inverter will execute the me of use page on Mon/Tue/Wed/Thu/Fri/Sat only.

5.8 Grid Setup Menu

Grid Setting

Unlock Grid Setting

Grid Mode Grid Frequency
Grid Type

General Standard

0/16

50HZ INV Output Voltage

60HZ

240V 220V

230V

Single Phase

200V

Grid Set1

120/240V Split Phase

120/208V 3 Phase

Unlock Grid Seng:before changing the grid parameters, please enable this with password of 7777. Then it is allowed to change the grid parameters.
Grid Mode: General StandardaUL1741 & IEEE1547a CPUC RULE21aSRD-UL-1741aCEI 0-21aEN50549_CZa Australia_AaAustralia_BaAustralia_CaNewZealanda VDE4105aOVE_Direcve_R25aEN50549_CZ_PPDS_L16Aa NRS097aG98G99aG98G99_NIaESB 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

Normal connect

Normal Ramp rate 60s

range when the inverter first me connect to the grid. Normal Ramp rate: It is the startup power ramp.

Low frequency 48.00Hz High frequency 51.50Hz Grid Reconnect aer trip: The allowed grid voltage

Low voltage 185.0V High voltage 265.0V Set2 /frequency range for the inverter connects the grid

Reconnect after trip Reconnect Ramp rate 60s

aer the inverter trip from the grid. Reconnect Ramp rate:It is the reconnecon power ramp.

Low frequency 48.20Hz High frequency 51.30Hz

Reconnecon me: The waing me period for the

Low voltage 187.0V

High voltage

263.0V

inverter connects the grid again.

PF: Power factor which is used to adjust inverter

Reconnection Time

60s

PF

1.000

reacve power.

Grid Setting/IP Protection

Over voltage U>(10 min. running mean) 260.0V

HV3 265.0V

HF3 51.50Hz

HV2 265.0V — 0.10s

HF2 51.50Hz — 0.10s

HV1 265.0V — 0.10s

HF1 51.50Hz — 0.10s

LV1 185.0V — 0.10s

LF1 48.00Hz — 0.10s

LV2 185.0V — 0.10s

LF2 48.00Hz — 0.10s

LV3 185.0V

LF3 48.00Hz

HV1: Level 1 overvoltage protecon point;
HV2: Level 2 overvoltage protecon point; 010s–Trip me.
HV3: Level 3 overvoltage protecon point.

Grid

LV1: Level 1 undervoltage protecon point;

Set3

LV2: Level 2 undervoltage protecon point;

LV3: Level 3 undervoltage protecon point.

HF1: Level 1 over frequency protecon point; HF2: Level 2 over frequency protecon point; HF3: Level 3 over frequency protecon point.

LF1: Level 1 under frequency protecon point; LF2: Level 2 under frequency protecon point; LF3: Level 3 under frequency protecon point.

Grid Setting/F(W)

F(W) Over frequency

Droop f

Start freq f

50.20Hz Stop freq f

Start delay f

0.00s

Stop delay f

Under frequency

Start freq f

49.80Hz

Droop f Stop freq f

Start delay f

0.00s

Stop delay f

40%PE/Hz 50.20Hz
0.00s

Grid Set4

40%PE/Hz 49.80Hz
0.00s

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 f50.2Hz, Stop freq f50.2, Droop f=40%PE/Hz” when the grid frequency reaches 50.2Hz, the inverter will decrease its acve 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.

Grid Setting/V(W) V(Q)

V(W)
V1 109.0% P1 100% V2 110.0% P2 20% V3 111.0% P3 20% V4 111.0% P4 20%

V(Q)

Lock-in/Pn 5%

Lock-out/Pn 20%

Grid Set5

V1 90.0%

Q1 44%

V2 95.7%

Q2 0%

V3 104.3% Q3 0%

V4 112.2% Q4 -60%

V(W): It is used to adjust the inverter acve power according to the set grid voltage. V(Q): It is used to adjust the inverter reacve power according to the set grid voltage. This funcon is used to adjust inverter output power (acve power and reacve power) when grid voltage changes. Lock-in/Pn 5%: When the inverter acve power is less than 5% rated power, the VQ mode will not take effect. Lock-out/Pn 20%: If the inverter acve 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% mes of rated grid voltage, inverter output power will reduce its acve output power to 20% rated power. For example: V1=90%, Q1=44%. When the grid voltage reaches the 90% mes of rated grid voltage, inverter output power will output 44% reacve output power. For the detailed setup values, please follow the local grid code.

Grid Setting/P(Q) P(F)

P(Q)

P1 0% P2 0% P3 0% P4 0%

Q1 0% Q2 0% Q3 0% Q4 0%

P(PF)

Lock-in/Pn 50%

Lock-out/Pn 50%

Grid Set6

P1 0%

PF1 -2.400

P2 0%

PF2 0.000

P3 0%

PF3 0.000

P4 0%

PF4 6.000

P(Q): It is used to adjust the inverter reacve power according to the set acve power. P(PF): It is used to adjust the inverter PF according to the set acve power. For the detailed setup values, please follow the local grid code. Lock- in/Pn 50%: When the inverter output acve power is less then 50% rated power, it won’t enter the P(PF) mode. Lock-out/Pn 50%: When the inverter output acve 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 1.05mes of rated grid voltage, then the P(PF) mode will take effect.

Grid Setting/LVRT
L/HVR
HV1 115%

Reserved: This funcon is reserved.It is not recommended.
Grid Set7

LV1 50%

5.9 Generator Port Use Setup Menu

GEN PORT USE

Mode Generator Input
Rated Power
8000W

AC couple on grid side AC couple on load side GEN connect to Grid input

SmartLoad Output

On Grid always on

Power AC Couple Fre High

500W

52.00Hz

Micro Inv Input ON 100% OFF 95%

PORT Set1

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 ulizes the Gen input connecon as an output which only receives power when the baery 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 baery bank SOC reaches 100%, Smart Load Port will switch on automacally and power the load connected. When the baery bank SOC < 95% or PV power < 500w, the Smart Load Port will switch off automacally.

Smart Load OFF Ba · Baery SOC at which the Smart load will switch off. Smart Load ON Ba · Baery SOC at which the Smart load will switch on. Also, the PV input power should exceed the seng 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. 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 baery SOC exceeds seng value, Microinveter or grid-ed inverter will shut down. Micro Inv Input ON: when the baery SOC is lower than seng value, Microinveter or grid-ed inverter will start to work. AC Couple Fre High: If choosing”Micro Inv input”, as the baery SOC reaches gradually seng value (OFF), During the process, the microinverter output power will decrease linear. When the baery SOC equals to the seng value (OFF), the system frequency will become the seng value (AC couple Fre high) and the Microinverter will stop working. Stop exporng 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: connecng the output of on- grid inverter at the load port of the hybrid inverter. In this
situaon, the hybrid inverter will not able to show the load power correctly. AC couple on grid side: this funcon is reserved. Note: Some firmware versions don’t have this funcon.

5.10 Advanced Funcon Setup Menu

Advanced Function

Solar Arc Fault ON Clear Arc_Fault
System selfcheck

Backup Delay 0ms
Gen peak-shaving

Func Set1

DRM Signal ISLAND MODE

CT Ratio 20001

BMS_Err_Stop

CEI 0-21 Report

*OWFSUFS
MPBEQPSU
– / “54
7

TIFMM (SPVOEDBCMF

FYUFSOBMSFMBZ
DPJM DPPOQUFBODU

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 aer the seng me. For example, backup delay: 3ms. the inverter will give output power aer 3ms when the grid cuts off. Note: for some old FW version, the funcon is not available BMS_Err_Stop: When it is acve, if the baery 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 disconnecon
or bond.
More details, please refer to le side picture.

Advanced Function

DC 1 for WindTurbine

DC 2 for WindTurbine

V1

90V

0.0A

V7

210V

9.0A

V2

110V

1.5A

V8

230V

10.5A

V3

130V

3.0A

V9

250V

12.0A

V4

150V

4.5A

V10 270V

13.5A

V5

170V

6.0A

V11

290V

15.0A

V6

190V

7.5A

V12 310V

16.5A

5IJTJTGPS8JOE5VSCJOF *”

Wind

Set2

67

Advanced Function

Parallel Master Slave

Modbus SN 00

A Phase B Phase C Phase

Ex_Meter For CT A Phase B Phase C Phase

Meter Select

CHNT-3P

0/4

CHNT-1P Eastron-3P Eastron-1P

Grid Side INV Meter2

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 Paral. Phase. Set3 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.

0O-PBE”$DPVQMF

On-Grid Inverter

AC cable DC cable

0O(SJE”$DPVQMF

AC cable DC cable

Solar

Battery

Smart Load

%%46%/3″-.&5&3
7
“JNQL8I

Meter

Backup Load

On-Grid Home Load

CT

Grid

Solar

Battery

Smart Load

Backup Load
On-Grid Inverter

On-Grid Home Load

%%46%/3″-.&5&3
7
“JNQL8I

Meter

CT

Grid

Advanced Function
ATS ON
Low Noise Mode Low Power Mode<Low Batt

ATS: It is related with ATS port voltage. it is beer in “uncheck” posion.

Low Noise Mode: In this mode, inverter will work in

Func Set4

“low noise mode”.

Low Power Mode<Low Ba: if selected and when baery SOC is less then “Low Bat” value, the self-consumpon power of inverter will be from grid and baery simultaneously. If unselected, the self-consumpon power of inverter will be mainly from grid.

5.11 Device Info Setup Menu

LDie-BvMiceSInfo.

Volt

HMCIu:rrVerT0eI3nm0vp2erteSrOICD:

1E6n0e1rg0y1200C1harge FFlaauslth MAIN:VeVr o0lt-52C1u3r-r0717

1 2

55A00..33la83rVVm11s99..17C00oAAde3310..06CC

52.0% 51.0%

2256..50AAOhh cc50u3.0.r2VrVed205.0.0AA

0|0|0 0|0|0

3 F5604.30HVe1a6t.s9i0nAk_H30i.g2ChTe1m2.p0%_Fau6.l0tAh201593.-20V3-1251.0A150:5|06|0

4 0.00V 0.00A 0.0C 0.0% 0.0Ah 0.0V 0.0A 0|0|0
5 F06.400VHe0a.t0s0iAnk_H0.0igChTe0m.0p%_Fau0.l0tAh20109.0-V03-00.80A 100:|406|0

DSeuvmice DInaftoa

6 F06.040VHe0a.t0s0iAnk_H0.0igChTe0m.0p%_Fau0.l0tAh20109.0-V03-00.80A 100:|405|0
7 0.00V 0.00A 0.0C 0.0% 0.0Ah 0.0V 0.0A 0|0|0

8 0.00V 0.00A 0.0C 0.0% 0.0Ah 0.0V 0.0A 0|0|0

9 0.00V 0.00A 0.0C 10 0.00V 0.00A 0.0C

0.0% 0.0%

0.0Ah 0.0V 0.0A 0|0|0
0.0Ah 0.0V 0.0A 0|0|0 Details

11 0.00V 0.00A 0.0C 12 0.00V 0.00A 0.0C

0.0% 0.0%

0.0Ah 0.0V 0.0A 0|0|0 Data
0.0Ah 0.0V 0.0A 0|0|0

13 0.00V 0.00A 0.0C 0.0% 0.0Ah 0.0V 0.0A 0|0|0

14 0.00V 0.00A 0.0C 0.0% 0.0Ah 0.0V 0.0A 0|0|0

15 0.00V 0.00A 0.0C 0.0% 0.0Ah 0.0V 0.0A 0|0|0

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

6. Mode

Mode I:Basic

AC cable DC cable COM cable

Solar

Backup Load On-Grid Home Load

Battery
Mode II: With Generator

CT Grid
AC cable DC cable

Solar

Backup Load

On-Grid Home Load

Battery
Mode III: With Smart-Load

Grid CT Generator
AC cable DC cable

Solar

Backup Load

On-Grid Home Load

Battery
Mode IV: AC Couple
0O(FO”$DPVQMF

CT

Grid

Smart Load

AC cable DC cable

Solar Battery

On-Grid Home Load

CT

Grid

Backup Load

On-Grid Inverter

0O-PBE”$DPVQMF

AC cable DC cable

Solar

Battery

Smart Load

0O(SJE”$DPVQMF

On-Grid Inverter Backup Load

On-Grid Home Load

CT

Grid

AC cable DC cable

Backup Load

Solar Battery

Smart Load

On-Grid Inverter On-Grid Home Load

CT

Grid

The 1st priority power of the system is always the PV power, then 2nd and 3rd priority power will be the baery bank or grid according to the sengs. The last power backup will be the Generator if it is available.
7. Fault informaon and processing
The energy storage inverter is designed according to the grid-connected operaon standard and meets the safety requirements and electromagnec compability 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 aer restarng, please contact your local dealer or service center. You need to have the following informaon ready.
1. Inverter serial number; 2. Distributor or service center of the inverter ; 3. On-grid power generaon date; 4. The problem descripon (including the fault code and indicator status displayed on the LCD)
is as detailed as possible. 5. Your contact informaon.In order to give you a clearer understanding of the inverter’s fault
informaon, we will list all possible fault codes and their descripons when the inverter is not working properly.

Error code

Description

Solutions

8IFOJOWFSUFSJTJO4QMJUQIBTF 7BD
PSUISFFQIBTF

‘

(‘%*@3FMBZ@’BJMVSF

TZTUFN 7BD
TZTUFN
UIFCBDLVQMPBEQPSU/MJOF

OFFETUPDPOOFDUHSPVOE

*GUIFGBVMUTUJMMFYJTUT
QMFBTFDPOUBDUVTGPSIFMQ

8IFOUIFHSJEUZQFBOEGSFRVFODZDIBOHFEJUXJMMSFQPSU’

8IFOUIFCBUUFSZNPEFXBTDIBOHFEUPo/PCBUUFSZpNPEF

JUXJMMSFQPSU’

‘PSTPNFPME’8WFSTJPO
JUXJMMSFQPSU’XIFOUIFTZTUFN

‘

8PSLJOHNPEFDIBOHF XPSLNPEFDIBOHFE

(FOFSBMMZ
JUXJMMEJTBQQFBSBVUPNBUJDBMMZXIFOTIPXT’

*GTUJMMTBNF
BOEUVSOPGGUIF%$TXJUDIBOE”$TXJUDIBOE

XBJUGPSPOFNJOVUFBOEUIFOUVSOPOUIF%$”$TXJUDI

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

“$TJEFPWFSDVSSFOUGBVMU

‘

“$PWFSDVSSFOUGBVMU PGIBSEXBSF

1MFBTFDIFDLXIFUIFSUIFCBDLVQMPBEQPXFSBOEDPNNPO MPBEQPXFSBSFXJUIJOUIFSBOHF 3FTUBSUBOEDIFDLXIFUIFSJUJTJOOPSNBM

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

%$TJEFPWFSDVSSFOUGBVMU

$IFDL17NPEVMFDPOOFDUBOECBUUFSZDPOOFDU

‘

%$PWFSDVSSFOUGBVMUPG UIFIBSEXBSF

8IFOJOUIFPGGHSJENPEF
UIFJOWFSUFSTUBSUVQXJUICJHQPXFS MPBE
JUNBZSFQPSU’1MFBTFSFEVDFUIFMPBEQPXFSDPOOFDUFE 5VSOPGGUIF%$TXJUDIBOE”$TXJUDIBOEUIFOXBJUPOF

NJOVUF
UIFOUVSOPOUIF%$”$TXJUDIBHBJO

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

‘

5[@&NFSH4UPQ@’BVMU 1MFBTFDPOUBDUZPVSJOTUBMMFSGPSIFMQ

-FBLBHFDVSSFOUGBVMU

‘

“$MFBLBHFDVSSFOUJT USBOTJFOUPWFSDVSSFOU

$IFDL17TJEFDBCMFHSPVOEDPOOFDUJPO 3FTUBSUUIFTZTUFN_UJNFT

*GUIFGBVMUTUJMMFYJTUT
QMFBTFDPOUBDUVTGPSIFMQ

17JTPMBUJPOSFTJTUBODFJTUPPMPX

‘

%$JOTVMBUJPOJNQFEBODF GBJMVSF

$IFDLUIFDPOOFDUJPOPG17QBOFMTBOEJOWFSUFSJTGJSNMZBOE DPSSFDUMZ $IFDLXIFUIFSUIF1&DBCMFPGJOWFSUFSJTDPOOFDUFEUPHSPVOE

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

1MFBTFXBJUGPSBXIJMFBOEDIFDLXIFUIFSJUJTOPSNBM

‘

5IF%$CVTCBSJT VOCBMBODFE

8IFOUIFIZCSJEJOTQMJUQIBTFNPEF
BOEUIFMPBEPG-BOE MPBEPG-JTCJHEJGGFSFOU
JUXJMMSFQPSUUIF’ 3FTUBSUUIFTZTUFN_UJNFT

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

8IFOJOQBSBMMFMNPEF
DIFDLUIFQBSBMMFMDPNNVOJDBUJPODBCMF

DPOOFDUJPOBOEIZCSJEJOWFSUFSDPNNVOJDBUJPOBEESFTTTFUUJOH

‘

1BSBMMFM$”/#VTGBVMU %VSJOHUIFQBSBMMFMTZTUFNTUBSUVQQFSJPE
JOWFSUFSTXJMMSFQPSU’

XIFOBMMJOWFSUFSTBSFJO0/TUBUVT
JUXJMMEJTBQQFBSBVUPNBUJDBMMZ

*GUIFGBVMUTUJMMFYJTUT
QMFBTFDPOUBDUVTGPSIFMQ

Error code ‘

Description “$0WFSDVSSFOUGBVMU

Solutions $IFDLUIFCBDLVQMPBEDPOOFDUFE
NBLFTVSFJUJTJOBMMPXFE QPXFSSBOHF *GUIFGBVMUTUJMMFYJTUT
QMFBTFDPOUBDUVTGPSIFMQ

/P6UJMJUZ

1MFBTFDPOGJSNHSJEJTMPTUPSOPU

‘

/P”$HSJE

$IFDLUIFHSJEDPOOFDUJPOJTHPPEPSOPU

$IFDLUIFTXJUDICFUXFFOJOWFSUFSBOEHSJEJTPOPSOPU

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

$IFDLUIFIZCSJEJOWFSUFSXPSLJOHTUBUVT*GUIFSFTQDT

‘

1BSBMMFMTZTUFNTUPQ

IZCSJEJOWFSUFSJTJO0”TUBUVT
UIFPUIFSIZCSJEJOWFSUFST NBZSFQPSU’GBVMUJOQBSBMMFMTZTUFN

*GUIFGBVMUTUJMMFYJTUT
QMFBTFDPOUBDUVTGPSIFMQ

(SJEWPMUBHFGBVMU

$IFDLUIF”$WPMUBHFJTJOUIFSBOHFPGTUBOEBSEWPMUBHFJO

‘

“$MJOFMPXWPMUBHF

TQFDJGJDBUJPO $IFDLXIFUIFSHSJE”$DBCMFTBSFGJSNMZBOEDPSSFDUMZ

DPOOFDUFE

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

(SJEGSFRVFODZPVUPGSBOHF

‘

“$PWFSGSFRVFODZ

$IFDLUIFGSFRVFODZJTJOUIFSBOHFPGTQFDJGJDBUJPOPSOPU $IFDLXIFUIFS”$DBCMFTBSFGJSNMZBOEDPSSFDUMZDPOOFDUFE

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

(SJEGSFRVFODZPVUPGSBOHF

‘

“$MPXFSGSFRVFODZ

$IFDLUIFGSFRVFODZJTJOUIFSBOHFPGTQFDJGJDBUJPOPSOPU $IFDLXIFUIFS”$DBCMFTBSFGJSNMZBOEDPSSFDUMZDPOOFDUFE

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

BUUFSZWPMUBHFMPX

‘

%$CVTCBSWPMUBHFJT UPPMPX

$IFDLXIFUIFSCBUUFSZWPMUBHFJTUPPMPX *GUIFCBUUFSZWPMUBHFJTUPPMPX
VTJOH17PSHSJEUPDIBSHFUIF CBUUFSZ

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

JUUFMMTUIFDPNNVOJDBUJPOCFUXFFOIZCSJEJOWFSUFSBOECBUUFSZ

.4EJTDPOOFDUFEXIFO#.4@&SS4UPQJTBDUJWF

‘

.4DPNNVOJDBUJPOGBVMU JGEPOnUXBOUUPTFFUIJTIBQQFO

ZPVDBOEJTBCMF

.4@&SS4UPQJUFNPOUIF-$%

*GUIFGBVMUTUJMMFYJTUT
QMFBTFDPOUBDUVTGPSIFMQ

“3$GBVMUEFUFDUJPOJTPOMZGPS64NBSLFU

‘

“3$GBVMU

$IFDL17NPEVMFDBCMFDPOOFDUJPOBOEDMFBSUIFGBVMU

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

)FBUTJOLUFNQFSBUVSFJTUPPIJHI

‘

)FBUTJOLIJHIUFNQFSBUVSF $IFDLXIFUIFSUIFXPSLFOWJSPONFOUUFNQFSBUVSFJTUPPIJHI

GBJMVSF

5VSOPGGUIFJOWFSUFSGPSNJOTBOESFTUBSU

4FFLIFMQGSPNVT
JGDBOOPUHPCBDLUPOPSNBMTUBUF

Chart 7-1 Fault informaon

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 transportaon of equipment · Damage caused by incorrect installaon or commissioning · Damage caused by failure to comply with operaon instrucons, installaon instrucons or maintenance instrucons · Damage caused by aempts to modify, alter or repair products · Damage caused by incorrect use or operaon · Damage caused by insufficient venlaon of equipment · Damage caused by failure to comply with applicable safety standards or regulaons · Damage caused by natural disasters or force majeure (e.g. floods, lightning, overvoltage, storms, fires, etc.) In addion, normal wear or any other failure will not affect the basic operaon of the product. Any external scratches, stains or natural mechanical wear does not represent a defect in the product.
8.Limitaon of Liability
In addion to the product warranty described above, the state and local laws and regulaons provide financial compensaon for the product’s power connecon (including violaon of implied terms and warranes). The company hereby declares that the terms and condions of the product and the policy cannot and can only legally exclude all liability within a limited scope.

9. Datasheet

Model Battery Input Date

SUN-5K-SG01LP1 SUN-6K-SG01LP1 SUN-7.6K-SG01LP1 SUN-8K-SG01LP1

-US

-US

-US/EU

-US/EU

Baery Type

Lead-acid or Li-Ion

Baery Voltage Range(V)

40-60

Max. Charging Current(A)

120

135

190

190

Max. Discharging Current(A)

120

135

190

190

Charging Curve

3 Stages / Equalizaon

External Temperature Sensor

yes

Charging Strategy for Li-Ion Baery

Self-adapon to BMS

PV String Input Data Max. DC Input Power(W) PV Input Voltage(V) MPPT Range(V) Start-up Voltage(V)

6500

7800

9880

370(125-500)

150-425

125

10400

PV Input Current(A)

13+13

26+13

26+26

26+26

Max.PV Isc(A) No. of MPPT Trackers

22+22

44+22

44+44 2

44+44

No. of Strings Per MPPT Tracker

1+1

2+1

2+2

2+2

AC Output Data Rated AC Output and UPS Power(W) 5000

6000

7600

8000

Max. AC Output Power(W)

5500

6600

8360

8800

Peak Power(off grid)

2 mes of rated power, 10 S

AC Output Rated Current(A) Max. AC Current(A) Max. Connuous AC Passthrough(A) Power Factor

20.8/24 22.9/26.4

25/28.8 31.7/36.5 34.5/33 33.3/38.536.4/34.8 27.5/31.7 34.8/40.2 38/36.3 36.7/42.3 40/38.3
50 0.8 leading to 0.8 lagging

Output Frequency and Voltage

50 / 60Hz; 120 / 240Vac (split phase), 208Vac (2 / 3 phase), 220/230Vac (single phase)

Grid Type

Split phase; 2 / 3 phase; Single Phase

Total Harmonic Distoron (THD) DC current injecon

<3% (of nominal power) <0.5% ln

Efficiency Max. Efficiency

97.60%

Euro Efficiency

97.00%

MPPT Efficiency Protection

99%

PV Arc Fault Detecon

Integrated

PV Input Lightning Protecon

Integrated

An-islanding Protecon

Integrated

PV String Input Reverse Polarity Protecon

Integrated

Insulaon Resistor Detecon

Integrated

Residual Current Monitoring Unit

Integrated

Output Over Current Protecon

Integrated

Output Shorted Protecon

Integrated

Surge Protecon Over Voltage Category

DC Type II / AC Type II DC Type II / AC Type III

Model Certifications and Standards

SUN-5K-SG01LP1 SUN-6K-SG01LP1 SUN-7.6K-SG01LP1 SUN-8K-SG01LP1

-US

-US

-US/EU

-US/EU

Grid Regulaon

EN 50549,UNE 217002,NRS 097,IEEE 1547.1,SRD V2.0

EMC / Safety Regulaon
General Data Operang Temperature Range(¥) Cooling Noise(dB) Communicaon with BMS Weight(kg) Cabinet size(mm) Protecon Degree
Installaon Style Warranty

IEC/EN 61000-6-1/2/3/4, IEC/EN 62109-1, IEC/EN 62109-2, FCC,UL 1741
-40 to +60¥, >45¥ Derang Smart cooling <30 dB RS485; CAN 32
420W×670H×233D (Excluding connectors and brackets) IP65
Wall-mounted 5 years

10. Appendix I
Definion of RJ45 Port Pin for BMS

/P

341JO

34

.FUFS@$0/

(/%

(/%

34”

34#

RS485 Port

$”/1JO
(/%
$”/) $”/-

CAN Port

Meter_CON port 5IJTQPSUJTVTFEUPDPOOFDUUIFFOFSHZNFUFS Note: some hardware versions hybrid inverter don’t support conencng the energy meter

RS232
/P

8’34 59 39
%(/%
7ED

8’34
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.
Lead Outside

Ver: 2.2, 2023-09-17

“EE/P4PVUI:POH+JBOH3PBE
%BRJ

FJMVO

/JOH#P
$IJOB 5FM
‘BY
&NBJMTFSWJDF!EFZFDPNDO 8FCXXXEFZFJOWFSUFSDPN

References

• Solar Grid-Tie Inverter Manufacturers, PV On-Grid Inverter | Deye

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