SolaX Power X3-Hybrid-5.0-D User manual

320101080601
X3-Hybrid Series
User Manual
5.0kW - 15.0kW
EN
ADD.: No. 288 Shizhu Road, Tonglu Economic Development Zone,
Tonglu City, Zhejiang Province, 310000 P. R. CHINA
Tel.: + 86 (0) 571- 56260011
E-mail: [e-mail]
Copyright Declaration
The copy right of this manual belongs to SolaX Power Network Technology(Zhejiang) Co. , Ltd.(SolaX
Power Co. , Ltd. ) . Any corporation or individual should not plagiarize, partially or fully copy it
(including software, etc. ) , and reproduction or distribution of it shall not be allowed in any form or
by any means. All rights reserved. SołaX Power Network Technology (Zhejiang) Co. , Ltd. reserves the
right of nal interpretation. The contents are subject to change without prior notice.
SolaX Power Network Technology (Zhejiang) Co., Ltd.

Change History
Changes between document versions are cumulative. The latest version contains
all updates made in previous versions.
Version 00 (Sep. 14, 2023)
Initial release
Version 01 (Nov. 01, 2023)
Update 3 Technical Data (Added parameters of rated output apparent power
and Max. output apparent power for AS/NZS 4777.2)

01
Contents
1 Note on this Manual.................................................03
1.1 Scope of Validity....................................................................
1.2 Target Group..........................................................................
1.3 Symbols Used..........................................................................
1.3.1 Important Safety Instructions............................................
1.3.2ExplanationofSymbols......................................................
 1.3.3 CE Directives........................................................................
2 Introduction......................................................................12
2.1 Basic Features.........................................................................
2.2 Electrical Block Diagram of the System.........................
2.3 Work Modes..............................................................................
2.4 Dimensions................................................................................
2.5 Terminals of Inverter.............................................................
3 Technical Data....................................................................19
3.1 DC Input ....................................................................................
3.2 AC Output/Input...................................................................
3.3 Battery........................................................................................
3.4 Efficiency, Safety and Protection.....................................
3.5 EPS(Off-grid) Output ...........................................................
3.6 General Data............................................................................
4 Installation..............................................................................22
4.1 Check for Transport Damage ......................................................
4.2 Packing List..................................................................................................
4.3 Installation Precautions.....................................................................
4.4 Tool Preparation......................................................................................
4.5 Installation Site Conditions............................................................
4.5.1 Installation Carrier Requirements .............................................
4.5.2 Installation Requirements...............................................................
4.5.3 Installation Space Requirements.................................................
4.6 Mounting......................................................................................................
22
22
24
25
27
27
27
28
29
19
19
20
20
21
21
12
12
15
17
18
03
03
03
04
09
11
Contents

03
02
1 Notes on this Manual
1.2 Target Group
1.3 Symbols Used
Warning!
“Warning" indicates a dangerous situation, which,
if not avoided, may result in serious injury or death.
1.1 Scope of Validity
Danger!
“Danger" refers to a dangerous situation that, if not
avoided, will result in a high level of risk such as serious
injury or even death.
5 Electrical Connections...........................................................32
.........................................................................................
5.2 Grid Port and EPS(Off-grid) Output Connection..........
5.3 EPS(Off-grid) Block Diagram.........................................................
..............................................................................5.4 Battery Connection
5.5 Communication Connection.......................................................
5.5.1 Introduction to COM Communication.....................................
5.5.2 Introduction to Meter/CT Communication...........................
5.5.3 Parallel Communication.................................................................
5.5.4 Introduction to DRM communication......................................
5.5.5 Introduction to OFF port ...............................................................
5.5.6 Communication Connection steps...........................................
5.6 Grounding Connection(Mandatory)......................................
5.7 Monitoring Connection(Accessories)....................................
5.8 Check All below Steps before Starting Inverter..............
5.9 Inverter Operation.................................................................................
6 Firmware upgrading...........................................................................................80
7 Setting.........................................................................................86
7.1 Control Panel............................................................................
7.2 Menu Structure.......................................................................
7.3 LCD Operation..........................................................................................
8 Troubleshooting............................................................ 124
8.1 Trouble Shooting..................................................................
8.2 Routine Maintenance.........................................................
9 Decommissioning........................................................131
9.1 Disassembling the Inverter...............................................
9.2 Packaging................................................................................
9.3 Storage and Transportation..............................................
9.4 Waste Disposal .......................................................................................
10 Disclaimer.......................................................................................132
* WARRANTY REGISTRATION FORM
5.1 PV Connection 32
36
37
46
50
50
52
55
62
62
63
71
74
79
80
86
87
88
124
130
131
131
131
131
Notes on this ManualContents
The following types of safety instructions and general information
appear in this document as described below:
X3-Hybrid-5.0-D X3-Hybrid-5.0-M
X3-Hybrid-6.0-D X3-Hybrid-6.0-M
X3-Hybrid-8.0-D X3-Hybrid-8.0-M
X3-Hybrid-10.0-D X3-Hybrid-10.0-M
X3-Hybrid-12.0-D X3-Hybrid-12.0-M
X3-Hybrid-15.0-D X3-Hybrid-15.0-M
X3-Hybrid-10.0K-D
X3-Hybrid-5.5-D LV X3-Hybrid-8.3-D LV
X3-Hybrid-12.0K-D
This manual is an integral part of the inverter, it describes the
assembly, installation, commissioning, maintenance and failure of
the product. Please read it carefully before operating.
Note: "X3-Hybrid" Series refers to the energy storage inverter that
supports photovoltaic grid-connected.
“5.0"means 5.0kW.
“10.0K-D" is in compliance with C10/11.
“D" means with "DC switch", "M" means externally connected
with X3-Matebox.
“LV" means low voltage.
The15.0kw inverter complies with Thailand’s PEA/MEA grid-
connected regulations.
Keep this manual available at any time.
This manual is for end customers and qualied electricians.The
tasks described in this manual only can be performed by qualied
electricians.

05
04
SafetySafety
Caution!
“Caution” indicates a hazardous situation which, if not
avoided, could result in minor or moderate injury.
Note!
“Note” provides tips that are valuable for the optimal
operation of our product.
Danger!
Danger to life due to high voltages in the inverter!
The personnel responsible for the installation, electrical
connection, debugging, maintenance and fault
handling operation of this product need to be trained,
master the correct operation method, have the
corresponding electrician qualification and safety
operation knowledge.
Caution!
When the inverter is working, it is strictly forbidden to
touch the shell. The temperature of the shell is high and
there is a risk of scalding.
Caution!
Radiation may be harmful to health!
Do not stay for a long time and keep at least 20 cm away
from the inverter.
Note!
Ground PV system.
Finish PV modules and photovoltaic system grounding
in accordance with local requirements to achieve
optimal protection of systems and personnel.
Warning!
Ensure that the input DC voltage is below the inverter
limit. Excessive DC voltage and current may cause
permanent damage or other losses to the inverter,
which is not covered by the warranty.
Warning!
Risk of electric shock!
Warning!
Only operate the inverter when it is technically faultless.
Warning!
Before performing maintenance, cleaning or operation
on the circuit connected to the inverter, authorized
maintenance personnel must first disconnect the AC
and DC power supplies of the inverter.
This inverter can only use the accessories sold and recommended by
our company, otherwise it may cause fire, electric shock or
casualties. Without the authorization of our company, you may not
open the inverter cover or replace the inverter parts, otherwise the
warranty promise of the inverter will be invalid.
Strictly follow relevant safety specifications for product installation
and testing. During installation, operation or maintenance, please
read carefully and follow the instructions and precautions on the
inverter or user manual. If the operation is incorrect, it may cause
personal and property losses. Please keep the user manual properly
after use.
The use and operation of the inverter must be carried out in
accordance with the instructions in this manual, otherwise this
protection will fail and the warranty of the inverter will also fail.
During working, the inverter surface temperature may exceed 60 , °C
please make sure the inverter cools down before touching, and
make sure children can not touch.
When exposed to sunlight, photovoltaic arrays generate dangerous
high DC voltages. Please follow our instructions, otherwise it will be
life-threatening.
Warning!
You need a multipolar interruption device to disconnect
the current conductors.

The islanding effect means that when the power grid is cut off, the
grid-connected power generation system fails to detect the power
outage and still supplies power to the power grid. This is very dangerous
for the maintenance personnel and the power grid on the transmission
line.
The inverter’s use active frequency offset method to prevent islanding
effect.
07
06
ØAnti-lslanding Effect
ØSurge protection devices (SPDs) for PV installation
Safety
A photovoltaic module used on the inverter must have a IEC61730A
rating, and the total open circuit voltage of the photovoltaic string /
array is lower than the maximum rated DC input voltage of the
inverter. Any damage caused by photovoltaic over voltage is not
covered by warranty.
Installation position should be away from wet environment and
corrosive substances.
After the inverter and power grid cut off the PV power supply,there
will be a certain amount of residual current in a short time, be
cautious or it may lead to serious personal injury and even high risk
of death. Use a multimeter (impedance at least1 MΩ) to measure the
voltage between the UDC and the UDC- to ensure that the inverter
port is discharged below the safe voltage before starting operation
(35 VDC).
Warning!
Over-voltage protection with surge arresters should be
provided when the PV power system is installed.
The grid connected inverter is fitted with SPDs in both
PV input side and MAINS side.
Safety
All DC and AC power sources must be disconnected from the
inverter for at least 5 minutes before any wiring or electrical
operation is performed on the inverter to ensure complete isolation
of the inverter and avoid electric shock.
Warning!
You need an external protection device.
If the building installed with external light protection device is
far away from the inverter location, in order to protect the
inverter from electrical and mechanical damage, the inverter
should also install an external lightning protection equipment.
In order to protect DC system, two-stage surge protection
equipment is needed between DC cable of inverter and
photovoltaic equipment module.
In order to protect the AC system, the level 2 surge protection
equipment should be installed at the AC output, located
between the inverter and the grid. Installation requirements
must comply with IEC61643-21 standard.
All DC cables shall be installed in a distance as short as possible,
and the positive and negative cables of the same input need to
be bundled together to avoid causing loops in the system.
Minimum distance installation and binding requirements also
apply to auxiliary grounding and shielding grounding
conductors.
Direct or indirect lightning strikes can cause failures. Surge is the
main cause of lightning damage to most devices. Surge voltage may
occur at photovoltaic input or AC output, especially in remote
mountain areas where long distance cable is supplied.
Please consult professionals before installing SPDs.
The external lightning protection device can reduce the inuence
of direct lightning strike, and the lightning protection device can
release surge current to the earth.

09
08
Safety
ØBattery Safety Instructions
Safety
Warning!
High leakage Current!
Earth connection essential before connecting supply.
ØPE Connection and Leakage Current
• All inverter’s incorporate a certified internal Residual Current Monitoring
(RCM) in order to protect against possible electrocution and fire hazard
in case of a malfunction in the PV array, cables or inverter.
There are 2 trip thresholds for the RCM as required for certification
(IEC 62109-2:2011).
The default value for electrocution protection is 30mA, and for slow
rising current is 300mA.

• If an external RCD is required by local regulations, it is recommended to
choose a Type-A RCD with the rating residual current of 300 mA.
Symbols on the Type Label
CE mark.
The inverter complies with the requirements of the
applicable CE guidelines.
Symbols
TUV certified.
RCM remark.
UKCA mark.
The inverter complies with the requirements of the
applicable UKCA guidelines.
UKNI mark.
The inverter complies with the requirements of the
applicable UKNI guidelines.
1.3.2 Explanation of Symbols
This section gives an explanation of all the symbols shown on the inverter
and on the type label.
Symbols on the Inverter
Battery status
Operating Display
An error has occurred, please inform your installer immediately
Symbols
Beware of hot surface.
The inverter can become hot during operation. Avoid
contact during operation.
The inverter should pair with high voltage battery, for the specic
parameters such as battery type, nominal voltage and nominal
capacity etc., please refer to section 3.3.
Please refer to the matching battery specication for details.
For United Kingdom
• The installation that connects the equipment to the supply
terminals shall comply with the requirements of BS 7671.
• Electrical installation of PV system shall comply with requirements
of BS 7671 and IEC 60364-7-712.
• All protective devices cannot be changed.
• User shall ensure that equipment is so installed, designed and
operated to maintain at all times compliance with the requirements
of ESQCR22(1)(a).
• A faulty ground connection can result in equipment failure,
personal and death injuries, and electromagnetic interference.
• Ensure correct according to grounding to IEC62109 and conductor
diameter according to STANDARD specification.
• Do not connect the grounding end of the equipment in series to
prevent multi-point grounding.
• Electrical appliances must be installed in accordance with the
wiring rules of each country.

10 11
The inverter can not be disposed together with the
household waste. Disposal information can be found in the
enclosed documentation.
Danger of high voltages.
Danger to life due to high voltages in the inverter!
Danger.
Risk of electric shock!
Observe enclosed documentation.
Do not operate this inverter until it is isolated from battery,
mains and on-site PV generation suppliers.
Danger to life due to high voltage. There is residual voltage
existing in the inverter after powering off, which needs 5 min
to discharge. Wait 5 min before you open the upper lid or
the DC lid.
Safety Safety
1.3.3 CE Directives
For installation in photovoltaic module system, it is necessary to
make sure that the whole system complies with the requirements of
EC(2014/35/EU, 2014/30/EU, etc.) before starting the module (i.e. to
start the operation).The assembly shall be installed in accordance
with the statutory wiring rules .Install and configure the system in
accordance with safety rules, including the use of specified wiring
methods. The installation of the system can only be done by
professional assemblers who are familiar with safety requirements
and EMC. The assembler shall ensure that the system complies with
the relevant national laws.
The individual subassembly of the system shall be interconnected
by means of the wiring methods outlined in national/international
such as the national electric code (NFPA) No. 70 or VDE regulation
4105.
This chapter describes the requirements of the European low
voltage regulations, including safety instructions and system
licensing conditions, the user must comply with these regulations
when installing, operating, and maintaining the inverter, otherwise
it will cause personal injury or death, and the inverter will cause
damage.
Please read the manual carefully when operating the inverter .If you
do not understand "danger", "warning", "caution" and the
description in the manual, please contact the manufacturer or
service agent before installing and operating the inverter.
Grid-connected inverter comply with low voltage directive (LVD)
2014/35/EU and Electromagnetic compatibility directive (EMC)
2014/30/EU.Detection of components is based on:
Standard of 2014/35/EU (LVD)
EN IEC 62109-1; EN IEC 62109-2
EN IEC 62477-1
Standard of 2014/30/EU (EMC)
EN IEC 61000-6-1; EN IEC 61000-6-2;
EN IEC 61000-6-3; EN IEC 61000-6-4;
EN IEC 61000-3-2; EN 61000-3-3;
EN IEC 61000-3-11; EN 61000-3-12;
EN 55011

2 Introduction
2.1 Basic Features
2.2 Electrical Block Diagram of the System
Diagram A: N line and PE line separate wiring, D series inverter;
(For most countries)
IntroductionInstallation
12 13
Diagram B: N line and PE line separate wiring, M series inverter;
(For most countries)
Diagram C: N line and PE line together, D series inverter;
( Applicable to Australia)
N
BAT
Battery
N-BAR for loads
N-BAR for EPS(Off-grid) loads
EPS(Off-grid) loads Loads
Inverter
PV 1
PV 2
E-BAR
RCD
Breaker
Grid
Breaker
Grid EPS(Off-grid)
Main Breaker/RCD
Breaker
Breaker
CT
Distribution Box
CT-R
CT-S
CT-T
N
BAT
Battery
N-BAR for loads
N-BAR for EPS(Off-grid) loads
EPS(Off-grid) loads Loads
Inverter
PV 1
PV 2
E-BAR
RCD
Breaker
Grid
Breaker
Grid EPS(Off-grid)
Main Breaker
Breaker
Breaker
CT
Distribution Box
N
CT-R
CT-T
CT-S
RCD
X3-Matebox
N
BAT
Battery
N-BAR for loads
N-BAR for EPS(Off-grid) loads
EPS(Off-grid) loads Loads
Inverter
PV 1
PV 2
E-BAR
Grid
Grid EPS(Off-grid)
Main Breaker/RCD
Breaker
Breaker
CT
CT-R
CT-S
CT-T
Distribution Box
The inverter has two wiring schemes, one is for M series
inverter connected to X3-Matebox, and the other is for D series
inverter.
There are different ways of wiring in different countries, one is to
connect N line with PE line, the other is to separate the line from
the PE line wiring, see below;
This high-quality inverter can convert solar energy into
alternating current and store energy into batteries.
The inverter can be used to optimize self-consumption, stored in
batteries for future use or fed into the public grid. The way it
works depends on user preferences. It can provide emergency
power during power outages.

Diagram D: N line and PE line together, M series inverter;
( Applicable to Australia)
Note!
The RCD on the gure represents a leakage protection
device with a circuit breaker function.
• When power cuts suddenly, the inverter connects the N
line of EPS(Off-grid) load with the ground through relay,
providing a xed zero potential for EPS(Off-grid) load and
ensuring the safety of electricity use by users.
• Please control the inverter load and make sure it is
"output value" in "within " EPS(Off-grid) mode, otherwise
the inverter will stop and alarm overload fault".
• Please confirm with the grid operator whether there are
special regulations for grid connection.
• If Australian users replace a SolaX X3-Fit G4 inverter with
a X3-Hybrid G4 inverter, only a meter can be connected in
those diagrams above.
IntroductionIntroduction
14 15
2.3 Work Modes
N
BAT
Battery
N-BAR for loads
N-BAR for EPS(Off-grid) loads
EPS(Off-grid) loads Loads
Inverter
PV 1
PV 2
E-BAR
Grid
Grid EPS(Off-grid)
Main Breaker
Breaker
Breaker
CT
CT-R
X3-Matebox
E-BAR
N
CT-S
CT-T
RCD
6:00
18:00
12:00
24:00
Forced
charging
Allowed
discharging
• Forced charging period
• Allowed discharging period
The priority of forced charging period is higher than all work modes.
Under the forced charging period, the inverter will charge the
battery rst untill the battery SOC reaches the value of "charge
battery to".
As shown in the example above, the allowed discharging period is 6
am to 24 pm, and the forced charging period is 24 pm to 6 am.
The default value of allowed discharging period is 00:00~23:59, and
the default value of forced charging period is 00:00~00:00(closed in
default). You can congure the two working periods by yourself.
The inverter has two congurable working
periods: allowed discharging period and
forced charging period.
For how to set the two working periods,
please refer to page 90.
Under the allowed discharging period, the inverter will allow the
battery to discharge (but not force the battery to discharge).
The following work modes will take effect under the allowed
discharging period.
For on-grid status, there are five work modes: Self Use, Feed-in
Priority, Backup, Manual and Peak Shaving Mode.
Self Use
Priority: Loads > Battery > Grid
The power of PV will supply the loads rst,
and surplus power will charge the battery,
then the remaining power will feed into
the grid.
The self use mode is suitable for areas with
low feed-in subsidies and high electricity
prices.
Feed-in priority
Priority: Loads > Grid > Battery
The feed-in priority mode is suitable for
areas with high feed-in subsidies, but has
feed-in power limitation.
The power of PV will supply the loads rst,
and surplus power will feed into the grid,
then the remaining power will charge the
battery.

IntroductionIntroduction
16 17
2.4 Dimensions
199mm
503mm
503mm
Backup mode
①
②
③
Manual
This work mode is for the after-sales team to do after-sales maintenance.
For off-grid status, there is only one work mode: EPS (Off-grid).
Priority: Loads > Battery > Grid
The back-up mode is suitable for areas
with frequent power outages.
This mode will maintain the battery
capacity at relatively high level, to
ensure that the emergency loads can
be used when the grid is off.
Same working logic with “self use” mode.
* For the above three work modes, when the power of PV is insufficient
to supply the loads, the battery will supply the loads. If the battery is
insufficient, then the grid will supply the loads.
EPS (Off-grid)
①
②
Priority: Loads > Battery
In case of power failure, the system will
supply EPS loads through PV and battery.
(The battery must be installed, and EPS
loads shall not exceed battery’s max.
output power.)
The power of PV will charge the loads rst,
and surplus power will charge the battery.
Note:
The battery will stop discharging when SOC=min SOC. But due to
battery self consumption, sometimes SOC may < min SOC.
For on-grid status, if the battery SOC ≤ (min SOC-5%), the inverter will
take utility energy to charge battery SOC back to (min SOC+1%).
For off-grid status, if the battery SOC ≤min SOC, the inverter will be
unable to enter EPS mode (the battery will be unable to discharge
unless SOC is back to 31%.)
Peak shaving mode is set for leaving out peaks in electricity use.
Peak shaving mode
The D-A period is the battery charging period during which discharging is not
allowed and the PV will charge the battery rst for peak shaving. The ChargeFromGrid"
setting determines whether or not to charge from the grid. When "ChargeFromGrid"
is set to "Disable", the battery cannot charge from the grid; when "ChargeFromGrid" is
set to "Enable" and the actual battery SOC is less than “Max_SOC”, the battery will
charge from the grid at no more than "ChargePowerLimits" power.
In the A-B and C-D periods, if the power of loads does not exceed "PeakLimits”,
the PV will charge the battery rst. When the battery is fully charged, the PV will
charge loads, and the surplus power will feed into the grid. If the power of loads
exceeds "PeakLimits”, the PV and battery will discharge energy for loads and thus
reduce the amount of energy purchased from the grid.
In the B-C period, the battery does not discharge. The PV will charge the battery
to the "Reserved SOC" rst and then supply power for loads, with the surplus
power feeding into the grid. Charging the battery rst in these periods is storing
energy for the peak shaving.
* If there are requirements for zero output from the inverter, the PV output will be
limited.
Before Peak Shaving
After Peak Shaving
BESS discharging into network
BESS charging from baseload
generating plant
Time of day
06 am midday 6 pm midnight
Baseload
generation
Mid merit
generation
Peaking
generation
Load demand/MW
D
A
BESS charging from
baseload generating
plant
BESS discharging
into network
BC

3 Technical Data
3.1 DC Input(apply to version D/M)
Qualified electrician required for the installation.
Warning!
Technical Data
Object
A
B
C
D
E
F
G
H
I
J
K
L
DC switch
PV connection port
Battery connection port
Meter/CT Port
External monitoring connection port
COM port
Grid connection port
CAN1 and CAN2 are for parallel communication / OFF is for
external shutdown/ DRM Port(only for Australia)
USB port for upgrading
Description
Battery communication
Ground connection port
EPS(Off-grid) Output(main load connection port)
M
Fans(only for X3-Hybrid-12.0-D/M and X3-Hybrid-15.0-D/M )
Introduction
18 19
3.2 AC Output/Input(apply to version D/M)
2.5 Terminals of Inverter
Nominal AC voltage
[a.c. V]
AC Output
AC Input
Rated AC power [W]
Max. AC current [a.c. A]
Max. Output
Apparent Power [ VA]
RatedOutput
ApparentPower[VA]
Max. Output
Continuous current
[a.c. A]
5500
(4999 for AS
/NZS 4777.2)
X3-Hybrid-5.0-M X3-Hybrid-6.0-M
X3-Hybrid-8.0-M
6000
6600
12.9
415/240; 400/230; 380/220
50/60
1 (0.8 leading...0.8 lagging)
< 3%
10000 12000 16000
415/240; 400/230; 380/220
50/60
X3-Hybrid-10.0-M
10000
(10.0K-D 9999)
(9999 for AS/
NZS 4777.2)
20000
32.0
25.8
16.1 19.3
X3-Hybrid-12.0-M
13200
12.0K-D 11999
20000
32.0
19.3
16.1
9.7
8.1
X3-Hybrid-15.0-M
8000
8800
15000
(14999 for AS/
NZS 4777.2)
24.1
20000
32.0
X3-Hybrid-5.0 X3-Hybrid-6.0 X3-Hybrid-8.0 X3-Hybrid-10.0 X3-Hybrid-12.0 X3-Hybrid-15.0
Model
ABCDE F G H
KLM
I
J
OFF
EPS
Upgrade/Dongle
CAN1 CAN2
Total harmonic
distortion(THDi)
Power Factor Range
Rated Output Current
[a.c. A] 7.2 8.7 11.6 14.5 17.5 21.8
X3-Hybrid-10.0K-D
11000
(10.0K-D 9999)
(9999 for AS
/NZS4777)
Current (inrush)
(at 50 μs) [a.c. A]
Maximum output
overcurrent
protection [a.c. A]
Maximum output
fault current
(at 5ms) [a.c. A]
30
68
68
A:4000/B:4000
10000
1000
640
180-950
16/16
20/20
0
200
2
A:1/B:1
X3-Hybrid-5.0 X3-Hybrid-6.0 X3-Hybrid-8.0
A:5000/B:5000
12000
1000
640
180-950
16/16
20/20
0
200
2
A:1/B:1
A:8500/B:5000
16000
1000
640
180-950
28/16
35/20
0
200
2
A:2/B:1
X3-Hybrid-10.0
A:10500/B:6000
20000
1000
640
180-950
28/16
35/20
0
200
2
A:2/B:1
X3-Hybrid-12.0
A:11000/B:7000
24000
1000
640
180-950
28/16
35/20
0
200
2
A:2/B:1
X3-Hybrid-15.0
A:11000/B:7000
30000
1000
640
180-950
28/16
35/20
0
200
2
A:2/B:1
Model X3-Hybrid-10.0K-D
Max. inverter backfeed
current to the array
Start output
voltage [d.c. V]
No. of MPPT trackers
Strings per MPPT tracker
Max. Recommended
DC power [W]
Max. PV voltage [d.c. V]
Nominal DC operating
voltage [d.c. V]
MPPT Voltage Range
[d.c. V]
Max. PV current [d.c. A]
Isc PV array Short
Circuit Current [d.c. A]
X3-Hybrid-5.5-D
LV
X3-Hybrid-8.3-D
LV
A:8000/B:5500
11000
800
360
160-650
28/16
35/20
0
200
2
A:2/B:1
A:11000/B:8300
16600
800
360
160-650
28/16
35/20
0
200
2
A:2/B:1
Nominal AC
frequency [Hz]
Nominal AC voltage
[a.c. V]
Nominal AC frequency
[Hz]
X3-Hybrid-5.5-D
LV
X3-Hybrid-8.3-D
LV
15000
(PEA 14000)
(14999 for AS/
NZS 4777.2)
5500
6100
127
8300
8300
16.1
14.5
21.8
21.8
11000
32.0 32.0
12100
50/60
127
50/60
Max. PV array power [Wp]
12000
12.0K-D 11999
X3-Hybrid-12.0K-D
X3-Hybrid-12.0K-D
5000
(4999 for AS
/NZS 4777.2)

3.3 Battery(apply to version D/M) 3.5 EPS(Off-grid) Output(apply to version D/M)
3.4 Efficiency, Safety and Protection(apply to version D/M)
3.6 Generic Data(apply to version D/M)
Technical Data Technical Data
20 21
Battery type
180-800
X3-Hybrid-5.0-MX3-Hybrid-6.0-MX3-Hybrid-8.0-M X3-Hybrid-10.0-M X3-Hybrid-12.0-M X3-Hybrid-15.0-M
X3-Hybrid-5.0 X3-Hybrid-6.0 X3-Hybrid-8.0 X3-Hybrid-10.0 X3-Hybrid-12.0 X3-Hybrid-15.0
Model
X3-Hybrid-15.0-M
Integrated
Integrated
YES
YES
YES
YES
YES
Frequency Shift
YES
YES
YES
MPPT efficiency
Max. battery charge
efficiency (PV to BAT)
(@ full load)
Max. battery discharge
efficiency (BAT to AC)
(@ full load)
Security & Protection
Safety
Grid Monitoring
DC SPD Protection
AC SPD Protection
99.9%
97.7%
98.2%
98.5%
99.9%
97.7%
98.2%
98.5%
99.9%
97.7%
98.2%
98.5%
97.5% 97.5% 97.5%
99.9%
97.7%
98.2%
98.5%
97.5%
99.9%
97.7%
98.2%
98.5%
97.5%
99.9%
97.7%
98.2%
98.5%
97.5%
X3-Hybrid-5.0-M X3-Hybrid-6.0-M X3-Hybrid-8.0-M X3-Hybrid-10.0-M X3-Hybrid-12.0-M
X3-Hybrid-5.0 X3-Hybrid-6.0 X3-Hybrid-8.0 X3-Hybrid-10.0 X3-Hybrid-12.0 X3-Hybrid-15.0
Model
Frequency[ Hz]
5000 8000 10000
18000, 10s
12000, 10s
12000 15000
22500, 10s
18000, 10s
12000, 10s 22500, 10s
6000
400V/230
50/60
<10ms
<3 %
X3-Hybrid-5.0-MX3-Hybrid-6.0-M X3-Hybrid-8.0-M X3-Hybrid-10.0-M X3-Hybrid-12.0-M X3-Hybrid-15.0-M
X3-Hybrid-5.0 X3-Hybrid-6.0 X3-Hybrid-8.0 X3-Hybrid-10.0 X3-Hybrid-12.0 X3-Hybrid-15.0
Model
X3-Hybrid-15.0-M
Dimensions (W/H/D)[mm]
Net weight [kg]
Gross weight* [kg]
Heat dissipation treatment
Noise emission(typical) [dB]
Humidity [%]
Altitude [m]
Ingress Protection
Protective Class
Cold standby consumption
Overvoltage Category
Pollution Degree
Installation mode
Inverter Topology
Communication interface
-40~+70
-35~+60 (derating at 45)
0%~100%
<3000
IP65
I
<5W
III(MAINS), II(PV, Battery)
III
Wall mounted
Non-isolated
Meter/ CT, external control RS485, Pocket series, DRM, USB
Smart Cooling
<45
30 30 30
503*503*199
560*625*322
34 34 34
30
34
30
34
30
34
X3-Hybrid-5.0-M
X3-Hybrid-6.0-M X3-Hybrid-8.0-M X3-Hybrid-10.0-M X3-Hybrid-12.0-M
X3-Hybrid-5.0 X3-Hybrid-6.0 X3-Hybrid-8.0 X3-Hybrid-10.0 X3-Hybrid-12.0 X3-Hybrid-15.0
Model
* The specific gross weight is subject to the actual situation of the whole machine.
X3-Hybrid-10.0K-D
X3-Hybrid-10.0K-D
X3-Hybrid-10.0K-D
X3-Hybrid-10.0K-D
IEC62109-1/-2
EN50549, VDE-AR-N 4105, CEI 0-16, CEI 0-21, NRS 097-2-1, AS/NZS 4777.2
Max. continuous
charge/discharge
current [d.c. A] 30A
CAN/RS485
YES
Communication
interface
Reverse connection
protection
Battery voltage
range [d.c. V]
X3-Hybrid-5.5-D
LV
X3-Hybrid-5.5-D
LV
Lithium batteries
European efficiency
Maximum efficiency
Over/under voltage
protection
DC injection
monitoring
Back feed current
monitoring
Residual current
detection
Active anti-islanding
method
Array insulation
resistance detection
Grid protection
Over heat protection
Over load protection
X3-Hybrid-5.5-D
LV
X3-Hybrid-8.3-D
LV
99.9%
97.7%
98.2%
98.5%
97.5%
99.9%
97.7%
98.2%
98.5%
97.5%
EPS(Off-grid) rated
power[VA]
EPS(Off-grid) rated
voltage [a.c. V]
EPS(Off-grid) rated
current [a.c. A]
EPS(Off-grid) Peak
Power [VA]
Switching time [s]
Total harmonic
distortion (THDv)
X3-Hybrid-5.5-D
LV
X3-Hybrid-8.3-D
LV
7.2 8.7 11.6 14.5 17.5 21.8
5500 8300
220/127
50/60
12400, 10s
9900, 10s
14.5 21.8
Operating Ambient
Temperature Range [ ]°C
X3-Hybrid-5.5-D
LV
X3-Hybrid-8.3-D
LV
30
34
30
34
Dimensions of Packing
(W/H/D)[mm]
Storage temperature
range [ ]°C
Natural Cooling
<40
Smart Cooling
<45
Natural Cooling
<40
Parallel operation YES, 10
180-650
X3-Hybrid-12.0K-D
X3-Hybrid-12.0K-D
X3-Hybrid-12.0K-D
X3-Hybrid-12.0K-D

4 Installation
4.2 Packing List
Ensure that the inverter is in good condition via transportation. If there
is any visible damage such as cracks, please contact the dealer
immediately.
1
A
B
C
D
E
F
G
H
I
J
K
1
1
6
3
12
1
6
Description (for D series)
L
M
1
Number Quantity
Inverter
Bracket
AC protective cover
Positive & negative PV connectors (for 5-6kW inverter,
positive*2, negative*2; for 8-15kW inverter, positive*3, negative*3)
Waterproof connectors with RJ45
6 mm² ferrules
Positive & negative battery connectors
N
O
1
6
OT terminal
P1
4.1 Check for Transport Damage
Documents
M5 inner hexagon screw
5
Wifi Dongle (optional)
CT
2
Installation
RJ 45 terminals
Note:
“ L ” The inverter in Australia needs to be connected to DRM, which is 1 more communication line
RJ 45 adapter than that in other countries.
23
22
1
A
B
H
I
J
1
3
1
Description (for M series)
L
M
Number Quantity
Inverter
Bracket
Waterproof connectors with RJ45
(Expansion tubes, expansion bolts, screws, washers)
N
P
1
6
1
Documents
M5 inner hexagon screw
5
Wifi Dongle (optional)
RJ 45 terminals
Installation
RJ45 connector
1
B C D
F G H
M N O
IJKK L
P
E
A
Positive & negative PV pin contacts (for 5-6kW inverter,
positive*2, negative*2; for 8-15kW inverter, positive*3, negative*3)
(Expansion tubes, expansion bolts, screws, washers)
RJ45 connector
Q
Q1Disassembling tool for PV terminal
Q1Disassembling tool for PV terminal
Open the package and check the materials and accessories
according to the following list.

The protection level of the inverter is IP 65, so that the inverter can be
installed outdoors.
Check the installation environment and pay attention to the following
conditions when installing:
• Do not expose to strong light.
• Do not touch flammable building materials.
• Do not approach flammable and explosive gases or liquids (e.g. where
chemicals are stored).
• Do not touch cold air directly.
• Do not approach TV antenna or cable.
• Do not place in areas above 3000 meters above sea level.
• Do not install in precipitation or high humidity, which may cause
corrosion or damage Internal devices.
• Keep the system out of reach of children.
If the inverter is installed in a narrow area, be sure to reserve appropriate
space for heat dissipation.
The ambient temperature of the installation site is -35 ~60 .°C °C
The maximum angle range of wall tilt ±5°.
Avoid direct sunlight, rain and snow weather.
4.3 Installation Precautions
No direct sunlight No Rain Exposure No snow Lay up
Direct Sunlight Rain Exposure Snow Lay up Stay away from
antenna cables
Stay away from
combustibles
InstallationInstallation
4.4 Tool preparation
Type
Machine Installation Tools
Tool equipment
(Bit Φ8)
Name Image
Hammer
drill
Utility knife
Name Image
Flat-head
screwdriver
MC4
Crimping
tool
Allen key
Multimeter
Diagonal
pliers
Crimping tool
for ferrules
Safety gloves
Heat gun
Individual
Protection
Tools
Crimping
tool
Marker
Torque
wrench
Rubber mallet
Spirit level
Wire cutter
Cross
screwdriver
DC Voltage
Range ≥1100 V DC
24 25
Measuring
tape
Wire stripper Crimping tool
for RJ45
Φ6 mm Heat
shrink tubing
Safety boots
Safety
goggles
Anti-dust
mask

4.5 Installation Site Conditions
4.5.1 Installation Carrier Requirements
4.5.2 Installation Requirements
Install the inverter at a maximum back tilt of 5 degrees, the inverter can
not be tilted forward, inverted, excessive back tilted or side tilted.
InstallationInstallation
26 27
Type
Equipment
Preparation
Name Requirement
Image
Cable
Preparation
Breaker
PV end
wire
EPS
(Off-grid)
end wire
Grid end
wire
Communi-
cation lines
PE Cable
Dedicated PV wire, line number
#4 mm² withstand voltage 1000V,
temperature resistance 105℃ fire
resistance grade VW-1
Battery
Cable
Five-core cable
Five-core cable
Grid port and EPS(Off-grid) port wiring
section (4.5.2)
Twisted pair with shield
Conventional wire
Conventional wire
≤5°
Do not install the inverter near flammable materials.
Please install the inverter on a solid object that can withstand the
weight requirements of the inverter and energy storage system.
Please be careful not to install the inverter in the plasterboard wall
or similar to the residential places with poor sound insulation, so as
not to work with noise and interfere with the residents' life in the
morning.

4.6 Mounting
ØPreparation
ØStep 1: Fix the wall bracket to the wall
Please prepare the following tools before installation.
Installation tools: screwdrivers, hammer drill with a Φ8 drill bit, mallet,
torque wrench set and Allen keys.
a) Use a spirit level and a marker to mark the position of the inverter with
the bracket on the wall.
b) Drill holes at marked spots at a depth of 65 mm.
4.5.3 Installation Space Requirements
Reserve enough space when installing inverter (at least 300mm) for heat
dissipation.
InstallationInstallation
Expansion screw, Expansion bolt, Screw nut, Washer Bracket
It consists of four parts
Washer
28 29
300mm
300mm
300mm
500mm
Position Min Distance
Left
Right
Up
Down
Reserved space dimensions of
installation
≥300mm
≥300mm
≥300mm≥300mm
≥300mm ≥300mm ≥300mm
≥300mm
≥300mm
≥300mm
≥1000mm ≥1000mm
≥500mm
≥500mm
≥300mm
≥300mm
Firstly, take out the combined expansion screws and the bracket in
the accessory bag, as shown below:
For multi-inverter installation scenarios, the inline installation
method is recommended; when the space is insufficient, the
recommended method of installation in the form of "products"; it is
not recommended to install multiple inverters in stacks. If you
choose stack installation, please refer to the installation separation
distance below.

ØStep 3: Tighten the inverter and bracket
e ) Hang the buckle at the back of the inverter onto the corresponding
position of the bracket;
f ) Use an Alley key to tighten the screw on the right side of the inverter.
ØStep 2: hang the inverter on the bracket
c) Insert an expansion bolt into an expansion tube and then insert them
into the hole, use a mallet to knock them into the wall;
d) Hang the bracket on the expansion bolts on the wall, thread washers
first and then a screw nut through the bolt. Use a torque wrench to screw
the screw nut until a "bang" is heard.
InstallationInstallation
c)
Mallet
Expansion tube, expansion bolt
30 31
b)
65.00 mm
Φ8 Drill
(Depth: 65 mm)
d)
Screw nut, Washer
e)
Allen key
(Torque:1.2±0.1 N· m)
f)

The inverter have two PV inputs. Please select photovoltaic modules
with good performance and quality assurance. The open circuit voltage
of the module array should be less than the maximum PV input voltage
specified by the inverter, and the working voltage should be within the
MPPT voltage range.
Table 1: Maximum input voltage limit(apply to version D/M)
5.1 PV Connection
Warning!
The voltage of photovoltaic modules is very high, and is
dangerous voltage. When wiring, please follow the safe
electricity regulations.
Note!
Please do not make PV positive or negative ground!
Note!
The following PV module requirements need to be applied
to each input range:
1. Same model
2. Same quantity
3. The same array
4. The same angle
ØConnection step
Electrical Connections Electrical Connections
5 Electrical Connections
Max. DC
input voltage 1000V
X3-Hybrid-5.0 X3-Hybrid-6.0 X3-Hybrid-8.0 X3-Hybrid-10.0 X3-Hybrid-12.0 X3-Hybrid-15.0
Model
32 33
Notice!
The series inverters support the Multi PV connection
method.
Inverter
PV
PV 1
+
-
PV 2
+
-
X3 HYD G4
+
-
PV 1
+
-
PV 2
+
-
Inverter
+
-
PV 1
+
-
PV 2
+
-
X3 HYD G4
+
-
PV 1
+
-
PV 2
+
-
Inverter
+
-
PV 1
+
-
PV 2
+
-
X3 HYD G4
+
-
PV 1
+
-
PV 2
+
-
Inverter
+
-
2. Method 2: Common
X3-Hybrid-10.0K-D
X3-Hybrid-5.5-D
LV
X3-Hybrid-8.3-D
LV
Tools below are needed before connection.
2
Step 1. Turn off the DC switch, then choose 4~6 mm cable to connect the
PV module.
Step 2. Strip 7mm of insulation from the wire end by using the wire
stripper crimping tool.
MC4 crimping tool recommended
model : H4TC0001
manufacturer: Amphenol
Wire stripper Crimping tool MC4 crimping tool
(4mm - 6mm )
2 2
Strip length
7.0 mm
Step 3. Insert striped wire into pin contact and ensure all conductor strands
are captured in the pin contact.
Positive PV
pin contact
Negative PV
pin contact
X3-Hybrid-12.0K-D
The M series inverter has been connected with PV cables. For specic
installation details, please refer to the X3-Matebox Quick Installation
Guide. The D series inverter needs to be wired according to the
following steps.

Step 8. Insert positive and negative PV cables into the corresponding
PV ports respectively.
Electrical Connections Electrical Connections
34 35
PV 2+
PV1+
PV1- PV1- PV 2-
PV1+
Dongle/ Upgrade
Step 7. Use a multimeter to measure the open circuit voltage of the
positive pole and negative pole of the PV cable, and make sure the
open circuit voltage less than the permissive max input voltage
(otherwise the machine may by damaged);
Step 6. Then screw down the cable nut.
Positive
terminal
Negative
terminal
Click!
Click!
Positive
Negative
≤ 950 V
Step 4. Crimp pin contact by using the MC4 crimping tool.
MC4
Crimping
tool
MC4 crimping tool
( )
2 2
4mm - 6mm
Step 5. Separate the DC connector as two parts: the plug and the
cable nut. Insert the wire into plug forcibly, when a "click" is
heard or felt, the pin contact assembly is seated correctly.