Solectria Renewables PVI 3800TL, PVI 7600TL, PVI 5200TL, PVI 6600TL Installation And Operation Manual

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Installation and Operation manual for

PVI 3800TL PVI 5200TL PVI 6600TL PVI 7600TL

Please check our website at http://www.solren.com/products-and-services/documentation/

This manual is subject to change.

for the most recent version.

manual are to be treated as condential and no part may be reproduced without the prior written permission of SOLECTRIA

RENEWABLES, LLC. Service engineers and end users may not divulge the information contained herein or use this manual for

purposes other than those strictly connected with correct use of the equipment. All information and specications are subject to

change without notice.

Table of Contents

1 General safety instructions 6

1.1 Safety symbols and terminology definitions 6

1.2 Safety Instructions 7

2 Introduction 8

2.1 System 8

2.2 Data evaluation and communication 9

2.3 Technical structure of the inverter 9

2.4 Ambient temperature 10

2.5 Inverter DC input voltage range 10

2.6 Efficiency 11

2.7 Equipment overview 12

2.8 Inverter Nameplate and Safety Labels 14

3 Installation 18

3.1 Visual inspection 19

3.2 Installation location 19

3.3 Mounting the inverter 20

3.4 Required torques for PVI inverters 22

4 Electrical connections 23

4.1 General safety 23

4.2 Utility AC voltage

4.3 AC circuit breaker requirements 26

4.4 Grounding electrode conductor (GEC)

4.5 Lightning and surge protection 26

4.6 Multiple inverters 26

4.7 PV string considerations 26

4.8 Inverter connections 27

4.8.1 General information 27

4.8.2 Opening the wiring box cover 29

4.8.3 Wiring box conduit openings 30

4.8.4 PV array string input connections 31

4.8.5 Selecting PV string fuse(s) 33

4.8.6 Inverter AC output wire connections 35

4.8.7 Inverter RS485 communication connections 39

5 Commissioning the PV system 40

5.1 Status LEDs 41

5.2 Display and keypad 41

5.2.1 Components 41

5.2.2 Display layout 41

5.2.3 Keys 42

5.2.4 General menu structure 42

5.3 Inverter turn-on procedure 42

5.4 Inverter turn-off procedure 43

5.5 Standard initial commissioning 43

5.5.1 Brief overview of the commissioning steps 43

5.5.2 Detailed description of the commissioning steps 43

5.6 Setting values 45

6 Production Information 47

6.1 Overview 47

6.2 Current Data 48

6.3 Other statistics 49

6.4 Deleting statistics 51

7 Settings 52

7.1 Overview 52

7.2 Installation settings 52

7.2.1 Date and time 53

7.2.2 Date and time formats 53

7.2.3 Contrast 54

7.2.4 Grid selection 54

7.2.5 RS485 55

7.3 Grid feed-in settings 56

7.4 Options settings 56

7.4.1 Shading 57

7.5 Standard menu 58

8 Diagnosis and maintenance 59

8.1 Operating states 59

8.1.1 Types of operating states 59

8.1.2 Factors influencing the operating state 59

8.1.3 Display of the actual operating state 60

8.2 Event log 61

8.2.1 Overview 61

8.2.2 External events menu 61

8.2.3 Change events menu 62

8.3 Trouble-shooting and correction 63

8.3.1 External events / Insulation and grounding failures 63

8.3.2 Internal failures 65

8.3.3 Other LED and display messages 66

8.4 Displaying grid settings 66

8.5 Internal log 67

8.6 Maintenance 67

9 Repair 67 10 Removal, transport, storage, disposal 68

10.1 Removal 68

10.2 Packaging 68

10.3 Transport 68

10.4 Storage 69

10.5 Disposal 69

11 Technical data 69

11.1 FCC Compliance Information 72

11.2 Canadian Compliance Information 72

12 Appendix 73

12.1 Overview of setting options 73

12.2 Order numbers 74

12.3 Overview of menu structure 74

12.3.1 "Go to menu" function 74

12.3.2 Installation settings (100) 75

12.3.3 Shading (210) 76

12.3.4 Production information (400) 76

12.3.5 Diagnostics and Alarms (600) 80

13.3.6 Software version/inverter data (700) 80

12.3.7 Standard menu (800) 81

12.4 Installation example on a 3-phase 208 or 240 VAC electrical system 81

12.5 Wiring diagrams 82

13 Glossary 84 14 Certificates 85 15 Warranty 85

Figures

1. PVI inverter output power vs ambient temperature curve 10

2. PVI 3800TL DC input Voltage Range 10

3. PVI 5200TL/PVI 6600TL/PVI 7600TL PV input DC Voltage Range 11

4. PVI 3800TL Efficiency Plot 11

5. PVI 7600TL Efficiency Plot 12

6. Exterior view of inverter’s main components 12

7. Lockable DC Disconnect 13

8. Nameplate Label and Barcode Label Location 14

9. Location of Caution Labels 15

10. Dimensions of PVI 3800TL inverter 16

11. Dimensions of PVI 5200TL/PVI 6600TL/PVI 7600TL inverters 16

12. Wiring box connection options 17

13. Inverter clearances 20

14. Dimension drawing of mounting plate 21

15. Installing the mounting bracket and inverter on a wood stud wall 21

16. 240V / 120V Split Phase AC Grid 24

17. 208V Delta AC Grid 24

18. 208V / 120V WYE AC Grid 25

19. 240V Delta AC Grid 25

20. 240V / 120V Stinger AC Grid 25

21. 480V Delta AC Grid 25

22. 480V / 277V WYE AC Grid 25

23. PVI 3800TL Inverter electrical diagram 28

24. PVI 5200TL/PVI 6600TL/PVI 7600TL Inverter electrical diagram 28

25. Removing the wiring box cover 29

26. Wiring box conduit opening locations 30

27. Wiring box conduit plug removal 30

28. Conduit installation and wiring routing 31

29. Wiring box - PV input connections 32

30. String fuse location 33

31. String fuse replacement procedure 34

32. Conduit installation and AC wiring routing 36

33. PVI 3800TL - AC voltage loss in different wire sizes and lengths 37

PVI 5200TL/PVI 6600TL/PVI 7600TL - AC voltage loss with different wire sizes and lengths 37

34.

35. Wiring box AC assembly - terminal labeling 38

36. Inverter RS485 system diagram 39

37. RS485 termination jumper 40

38. RS485 connector pin-out 40

IMPORTANT SAFETY INSTRUCTIONS

SAVE THESE INSTRUCTIONS

1 General safety instructions

This manual contains important instructions for Solectria models PVI 3800TL, PVI 5200TL, PVI 6600TL and PVI 7600TL that should be followed during installation and maintenance of the inverter.

Solectria models PVI 5200TL, PVI 6600TL and PVI 7600TL inverters are designed and tested to meet all applicable North American and International safety standards. However, like all electrical and electronic equipment, safety precautions must be observed and followed during installation and operation of Solectria inverters to reduce the risk of personal injury and to ensure a safe installation.

Installation, commissioning, service, and maintenance of Solectria models PVI 3800TL, PVI 5200TL, PVI 6600TL and PVI 7600TL inverters must only be performed by qualied personnel that are licensed and/or satisfy state and local jurisdiction regulations.

Before starting installation or commissioning of the Solectria PVI 3800TL, PVI 5200TL, PVI 6600TL and PVI 7600TL, read through the entire manual and note all DANGER! WARNING! CAUTION!, and NOTICE! statements.

All US electrical installations must comply and be in accordance with all the state, local, utility regulations, and National Electrical Code ANSI/NFPA 70.

For installations in Canada, please ensure these are done in accordance with applicable Canadian standards.

1.1 Safetysymbolsandterminologydenitions

DANGER indicates a hazardous situation which, if not avoided,

DANGER!

WARNING!

AVERTISSEMENT!

CAUTION!

PRUDENCE!

will result in death or serious injury.

WARNING indicates a hazardous situation which, if not avoided, could result in death or serious injury.

CAUTION indicates a hazardous situation which, if not avoided, could result in minor or moderate injury.

NOTICE!

AVIS!

NOTICE indicates a situation that can result in property damage if not avoided.

INFORMATION!

INFORMATIONS!

INFORMATION provided will ensure optimal operation of the system.

HIGH VOLTAGE WARNING! Indicates hazardous high voltages are present, which, if not avoided, will result in death or serious injury. Thus, only authorized and trained personnel should install and/or maintain this product.

Primary Earth (PE) Ground

Wait for a prescribed amount of time before engaging in the indicated action

1.2 Safety Instructions

The inverter installation must be performed by an licensed electrician in accordance with the local and National Electrical Code ANSI/NFPA 70 and OSHA requirements.

• The inverter section contains no user-serviceable parts. For all service and maintenance, the inverter should be returned to a Solectria Authorized Service Center.

• Read all of these instructions, cautions, and warnings for the Solectria inverter and associated PV array documentation.

• Before connecting the Solectria inverter to the AC distribution grid, approval must be received by the appropriate local utility as required by national and state interconnection

regulations, and must be connected only by qualied personnel.

• During operation, the inverter wiring and connections can have hazardous voltages and currents present, thus only authorized and qualied personnel shall install and/or maintain

the inverter.

• During some operation instances, the inverter chassis & heatsink surfaces may become hot.

• PV solar arrays produce hazardous voltages and currents when exposed to light which

can create an electrical shock hazard. Use dark opaque sheets to cover the PV solar array before wiring or connecting cable terminations.

2 Introduction

With this device you have acquired a inverter for connection of a photovoltaic system to the grid. This inverter is characterized by an advanced housing design and state-of-the-art high-frequency

technology, which enable the highest levels of efciency and longest life.

The inverter includes key features and capabilities, such as anti-islanding protection, LCD, RS485 interfaces.

The inverter is usable indoors and outdoors. It fullls the directives of ANSI/NFPA 70, NEC 690.5,

UL 1741, IEEE 1547 and IEEE 1547.1 for parallel operation of power generation plants on lowvoltage network of regional electrical utility companies.

The function of the anti-islanding protection (automatic isolation point for in-plant generation sys-

tems) complies with UL 1741 / IEEE 1547 specications.

In the following technical description, the precise functions are explained to the installer, as well as the user, which are required for the installation, operational start-up and handling of the inverter.

2.1 System

Renewable energy use worldwide is increasing annually by approximately 25%. The reason for this rise can be primarily attributed to the constantly increasing demand for power, the increasing interest in environmentally friendly technologies, as well as the increasing costs of non-renewable energy.

Use of renewable energy sources, can reduce levels of CO sphere produced by conventional power generation.

and other harmful gases in the atmo-

The inverter converts direct current from solar array into alternating current. This enables you to feed your self-produced solar energy into the electric grid.

Thanks to efcient MPP tracking, maximum capacity utilization of the solar energy plant is ensured even in cases of misty and cloudy skies.

The string concept means that PV modules are always connected in series (in a string) and/or that

strings with the same voltage are connected in parallel to the inverter with the aim of signicantly

reducing the photovoltaic system’s cabling requirements. The fact that the modules are connected in strings also means that the photovoltaic system can be

perfectly matched to the inverter’s input voltage range. The inverter is transformerless, without galvanic isolation. Therefore, the inverter may only be oper-

ated with ungrounded PV arrays. Furthermore, the PV array must be installed in accordance with the NEC690.35 (Ungrounded Photovoltaic Power Systems) and the locally valid regulations for ungrounded PV arrays. Additionally, the PV array (PV modules and cabling) must have protective insulation and the PV modules used must be suitable for use with this inverter. PV modules with a high capacity to ground may only be used if their coupling capacity does not excessed 1,200 nF with 60Hz grid.

2.2 Data evaluation and communication

The integrated data display, processing and communication of the device enables easy operation of the inverter. Monitoring of the operational status and signaling of operational failures are capable of being reviewed on the device display. The data interfaces enable the downloading of data.

The best way of accessing this functionality is via a monitoring system, such as SolrenView, connected to your inverter.

The read-out of the data on the display is possible when the inverter is connected to AC.

2.3 Technical structure of the inverter

The photovoltaic voltage is adjusted so that the maximum power output of the PV modules is also achieved with different solar irradiation levels and temperatures (MPP-Tracking). These inverters have quite wide MPP range of suit for variety of PV modules by a variety of manufacturers. Measures must be taken to ensure that the maximum no- load voltage of 600 V is never exceeded. Please note that the maximum no-load voltage will occur at the lowest temperatures anticipated.

You will nd more detailed information about temperature dependency in the data sheet for the

PV modules. The device’s power consumption is kept to a minimum (1.5 W). Warranty is void if 600VDC is exceeded.

The high-quality aluminum casing corresponds to protection degree NEMA 4 / IP65 (water-jet proof

and dust-proof) and is protected by an anti-corrosion nish. The heat sink on the PVI 3800-7600TL

inverters is designed in such a way that operation of the inverter is possible at ambient tempera-

tures from -13°F to +122°F (-25°C to +50°C) at full rated power and optimal efciency for either 240

Vac or 208 Vac AC grids.

Aluminum ns designed into the back of the inverter chassis are used to dissipate heat and protect

the unit. An internal temperature control protects the interior of the device. In case of high ambient temperatures, the maximum power is limited.

The inverter is controlled by microcontrollers which provide interface communication and the values and messages on the front-panel display.

AC grid monitoring is done by an independent dedicated micro controller set up to meet the requirements of UL 1741 / IEEE 1547. This enables a connection of the inverter to the grid.

Operator protection requirements are met by electrically isolating the grid from the PV module. The electrical isolation between the grid and the PV array is equivalent to basic insulation. Maximum operator protection is ensured by reinforced isolation between the grid, PV modules and accessible interfaces (display, RS485 interface and fan port). Relevant standards concerning electromagnetic

compatibility (EMC) and safety are fullled. The inverter can only function as a grid-tied device. Anti-islanding function, which was certied ac-

cording to UL 1741, guarantees disconnection in case of loss of AC grid.

2.4 Ambient temperature

The inverter can be operated in ambient temperatures between -13°F to 158°F (-25°C to +70°C). The following diagram illustrates how the power of the inverter is reduced automatically depending on ambient temperature.

The device should be installed in a well-ventilated, cool and dry location.

100%

90%

80%

70%

60%

50%

40%

Nominal Output Power

30%

20%

10%

30 °C 40 °C 50 °C 60 °C 70 °C 80 °C

100% Nom. output pwr @ 200 V

100% Nom. output pwr @ 380 V

Nom. output pwr @ 500 V

*Figure 1 demonstrates typical behavior for PVI 3800-7600TL series inverters.

Figure 1: Solectria PVI 3800-7600TL inverter output power vs ambient temperature curve*

2.5 Inverter DC input voltage range

Figure 2: Solectria PVI 3800TL DC input voltage range

Figure 3: PVI 5200TL and PVI 7600TL PV input DC voltage range

2.6 Efciency

The best efciency of the inverter is obtained at input voltages > 320V for 208V grid, and input voltages > 380V for 240V grid.

Figure4:PVI3800TLefciencyplot

(7)

(9)

Figure5:PVI7600TLefciencyplot

2.7 Equipment overview

(1)

(2) (3) (4)

(1) Inverter Power Stage (2) LED Indicators (3) LCD (4) Keypad (5) Mounting Bracket (6) Lockable DC Disconnect (7) Wiring Box Cover (8) Wiring Box (9) Conduit Plugs

(5) (6)

(8)

Figure 6: Exterior view of inverter main components

A further description of the equipment features: (1) Inverter Power Stage - This is the inverter section of the assembly. This section is sealed at

the factory and there are no user-serviceable parts inside. All wiring to install the inverter is done in the wiring compartment.

(2) LED Indicators - The three LED indicators show errors or status as described in section 9. (3) LCD - The 20 character, 4 line LCD shows important messages regarding the inverter status

and performance. (4) Display Control Keys - These 4 keys allow the user to access status and performance infor-

mation and to change settings via the display. (5) Mounting Bracket - The inverter ships with a mounting bracket that allows for easy installation

of the inverter to a wall. (6) Lockable DC Disconnect - The DC disconnect is lockable and allows DC power to be discon-

nected from the inverter. See gure 7 below.

(7) Wiring Box Cover - This is the cover for the wiring compartment. The removal procedure is shown on page 29. Please note the DC disconnnect must be in the OFF position before this cover can be removed.

(8) Wiring Box - This is the compartment where all the wiring for the inverter inputs and outputs plus the RS485 communication is done.

(9) Conduit Opening - There are 6 - 1“ conduit openings and 2 - 1/2“ conduit openings. Each

conduit opening comes tted with a conduit plug that should be removed before installing conduit ttings. Conduit ttings need to be water tight with either a NEMA 4, 4X, 6, or 6X rating.

Off

OFF

Figure 7: Lockable DC Disconnect

DC Disconnect shown with lock in off position. There are three openings on the disconnect where a lockout padlock can be attached as shown above.

2.8 Inverter Nameplate and Safety Labels

Figure 8: Nameplate Label location

The nameplate label is shown in gure 8.

The inverter serial number can be found on the nameplate label.

*Models PVI-5200TL, PVI-6600TL & PVI-7600TL are not UL Listed by UL LLC as of the time of print of this manual.“

The main caution label in English is on the left side of the inverter in the middle of the unit and the equivalent label in French is located just above as shown in the illustration.

WARNING: MORE THAN ONE LIVE CIRCUIT. See diagram in manual

The caution label located in the wiring box enclosure as shown above indicates that there is more than one live circuit.

Figure 9: Location of Caution Labels

Figure 10: Dimensions of PVI 3800TL inverters

Figure 11: Dimensions of PVI 5200TL, PVI 6600TL and PVI 7600TL inverters

(1)

(2)

(7)

(9)

(8)

(3)

(5)

(4)

(1) Fuse Holders (2) RS485 T ermination (3) PV Positive Terminals (4) PV Negative Terminals (5) AC side Grounding Terminals

Figure 12: Wiring box connection options

Required torques for wiring box terminals

Terminalsingure12 Wire size permitted Required torque

3-8 (see location and description above)

Table 1: Required torques for wiring box terminals

(6) AC side Neutral (7) AC side L2 (8) AC side L1 (9) RS485 communication ports

14 - 6 AWG (2.5 - 16 mm2) 10.5 in-lbs (1.2 Nm)

(6)

3 Installation

WARNING!

AVERTISSEMENT!

WARNING!

AVERTISSEMENT!

WARNING!

AVERTISSEMENT!

WARNING!

AVERTISSEMENT!

CAUTION!

PRUDENCE!

Read all of these instructions, cautions, and warnings for the Solectria PVI inverter and associated PV array documentation.

Installation and commissioning must be performed by a licensed electrician in accordance with local, state, and National Electrical Code ANSI/NFPA 70 requirements.

The installation and wiring methods used in the installation of this inverter in the U.S. must comply with all US National Electric Code requirements (NEC) and local Authority Having Jurisdiction (AHJ) inspector requirements. In Canada, the installation and wiring methods used must comply with the Canadian Electric Code, parts I and II, and the local AHJ inspector requirements. System grounding when required by the Canadian Electrical Code, Part 1, is the responsibility of the installer.

These servicing instructions are for use by qualied personnel only.

To reduce the risk of electric shock, refer all servicing to factory

qualied service personnel. No user service parts are contained

inside the inverter.

The secondary short-circuit current rating is increased at the transfer connection point to the public electricity supply system by the nominal current of the connected inverter.

CAUTION!

PRUDENCE!

CAUTION!

PRUDENCE!

INFORMATION!

INFORMATIONS!

To reduce the risk of re, connect only to a circuit provided with

branch circuit overcurrent protection in accordance with the National Electrical Code, ANSI/NFPA70.

The unit or system is provided with xed trip limits and shall not be

aggregated above 30KW on a single point of common connection.

In order to be able to carry out an energy measurement, a revenue meter kWh must be attached between the networks feed-in point and the inverter.

3.1 Visual inspection

All Solectria PVI inverters are 100% tested, packaged in a heavy duty cardboard shipping carton, and visually inspected before leaving our manufacturing facility. If you receive the inverter in a damaged shipping carton, please reject the shipment and notify the shipping company. Verify Solectria PVI shipping carton contains: a. Correct Solectria PVI inverter model: PVI 3800TL, PVI 5200TL, PVI 6600TL and PVI 7600TL b. Mounting bracket c. Operation and Installation Manual

Visually inspect the Solectria PVI inverter for any physical damage such as a bent heatsink n and

dented chassis. If the inverter appears to be damaged or if the inverter needs to be returned, please contact your

local Solectria representative.

No user serviceable parts are contained in the inverter section. Do not attempt to open or repair the inverter. The inverter section is factory sealed to maintain its NEMA 4 rating and will void the

WARNING!

AVERTISSEMENT!

inverter warranty.

3.2 Installation location

1. Install the inverter on a non-ammable support base.

2. The inverter must be mounted vertically on a at surface.

3. For clearances around inverter, see Figure 13.

4. Ensure the mounting hardware and structure can support the weight of the inverter.

5. Ensure the mounting hardware meets the appropriate building code.

6. Avoid installation on resonating surfaces (light construction walls etc.).

7. Installation can be indoors or in protected outdoor areas.

8. Avoid direct sun exposure.

9. Ensure inverter ambient temperature is within -13°F to +122°F (-25°C to +50°C) for optimal

efciency of the PV system.

10. Chose a mounting height for easy viewing of the display.

11. Despite having a NEMA 4 / IP65 enclosure with a soiling category III certication, the inver

ter must not be exposed to heavy soiling.

12. Unused connectors and interfaces must be covered through sealing connectors.

3.3 Mounting the inverter

Please make sure the inverter is installed vertically, especially if it is installed outdoors.

>20"

(50.8 cm)

>4"

(10 cm)

Figure 13: Inverter clearances

The National Electric Code may require signicant larger working clearances (see NEC Section

110.26)

>6"

(15.2 cm)

>39"

(100 cm)

>6"

(15.2 cm)

Inverter should be mounted at least 39“ (100 cm) from

the oor or ground surface.

Inverter should be at least 20“ (50.8 cm) from any ceiling surface

5.91in (150mm)

4.72in (120mm)

9.45in (240mm)

2.09in

1.97in

(53mm)

50mm

6.88in (174.8mm)

2.09in

1.50in

0.256in

6.5mm

53mm

38mm

Figure 14: Dimensional drawing of mounting plate

1. Mount the mounting plate to the wall with at least 4 screws and anchors (Ø 1/4“). With 4 screws use 4 holes A or 4 holes B (see Figure 14). You can use the mounting plate as a template for marking the positions of the boreholes.

2. Tighten the screws rmly to the wall.

Figure 15: Installing the mounting bracket and inverter on a wood stud wall.

1. Using the mounting bracket as a template, mark four screw holes onto the wall. For 16 in. (40.6 cm) on center stud mounting, use the four holes that are indicated for this purpose in

the gure. Make sure the holes are in the center of each stud before marking the drill

location.

2. After marking the screw hole locations, drill the pilot holes for the appropriate screw type that will hold the weight of the inverter in the selected material. 1/4“ lag bolts are recom mended for mounting on wood framed walls.

3. Align the mounting bracket over the pilot holes and install the mounting hardware to 3/16

inches ush to mounting surface. Please tighten to the recommended torque necessary to hold the mounting bracket rmly to the wall surface type.

4. As the inverters are heavy, they should be lifted out of the cardboard container by at least two persons (PVI 3800TL weighs 42 lbs (19 kg) and PVI 5200/6600/7600TL weigh 64 lbs (29 kg)).

5. With two people, lift up the inverter and place it carefully onto the mounting bracket. Install

two locking nuts as shown in the gure 16 to secure the device.

6. Check that the inverter is seated securely on the wall.

It is recommended to use stainless steel screws, especially if installed outdoors. Be sure to verify sheer and pullout strength of anchors or other wall attachments.

3.4 Required torques for PVI inverters

Part Description Required torque

Wiring Box Cover Screws Wiring Box Interior Nuts

Table 2: Required Torques for PVI inverters

M6 screws (x4) for attaching the wiring box cover to the wiring box 10mm nuts (x4) that secure the wiring box to the inverter stage assembly

max. 71 in-lbs (8 Nm) max. 71 in-lbs (8 Nm)

4 Electrical connections

4.1 General safety

WARNING!

AVERTISSEMENT!

WARNING!

AVERTISSEMENT!

DANGER!

WARNING!

AVERTISSEMENT!

CAUTION!

PRUDENCE!

Read all of the instructions, cautions, and warnings for the Solectria PVI inverter and associated PV array documentation.

Installation and commissioning must be performed by a licensed electrician in accordance with local, state, and National Electrical Code ANSI/NFPA 70 requirements. Use 90°C (194 °F) copper solid or stranded wire for all DC and AC wiring to the PVI inverter to opti-

mimize system efciency. Size conductors per NEC requirements.

PV solar arrays produce hazardous voltages and currents when exposed to light which can create an electrical shock hazard. Using dark opaque sheets cover the PV solar array before wiring or connecting cable terminations.

Before connecting the Solectria PVI inverter to the AC distribution grid, approval must be received by appropriate local utility as required by national and state interconnection regulations, and must be

connected only by qualied personnel.

Do not attempt to open or repair the inverter as the inverter is factory sealed to maintain its NEMA 4 / IP65 rating and will void the inverter warranty.

CAUTION!

PRUDENCE!

The PV AC output circuits are isolated from the enclosure. The PV

system Ground Electrode Conductor (GEC) when required by National Electric Code (NEC), ANSI/NFPA 70 Sections 690.41, 690.42, and 690.43 is the responsibility of the installer.

4.2 Utility AC voltage

The Solectria PVI inverters are grid-tied to the public utility. PVI inverters are software congurable via the user display panel for various 208 Vac or 240 Vac 60 Hz service congurations as shown in gures 18-22.

CAUTION!

PRUDENCE!

AC connection voltage and frequency limits:

Voltage range for 208 V nominal, line to line 183 V - 228 V Voltage range for 240 V nominal, line to line 211 V - 262 V Frequency Range 59.3 Hz - 60.5 Hz

Table 3: AC connection voltage and frequency limits

Gridcongurationsallowed:

The Solectria PVI Inverters should never be connected to a 120 Vac utility service. NEC 690.64(b)(1) requires that the inverter be connected to a dedicated circuit with no other outlets or devices connected to the same circuit.



Figure 16: 240V/120V Split Phase AC Grid

Figure 17: 208V Delta AC Grid



Figure 18: 208V/120V WYE AC Grid



Figure 20: 240V/120V Stinger AC Grid

GridCongurationsNOTAllowed:

Figure 19: 240V Delta AC Grid

Figure 21: 480V Delta AC Grid Figure 22: 480V/277V WYE AC Grid

4.3 AC circuit breaker requirements

A dedicated circuit breaker in the building circuit panel is required for each Solectria PVI inverter that is installed. There should be a circuit breaker or fuse to protect each AC line, L1 and L2. The circuit breaker should be able to handle the rated maximum output voltage and current of the inverter. Please refer to the table below to determine the appropriate circuit breaker size to avoid potential re hazards. The National Electrical Code (NEC), ANSI/NFPA 70 or applicable local electrical codes must be folllowed when determining maximum branch-circuit over-current protection requirements.

Inverter model Recommended AC branch protection

PVI 3800TL 2-pole, 20 A 208/240 Vac PVI 5200TL 2-pole, 35 A 208 Vac / 30 A 240 Vac (max 40 A) PVI 6600TL 2-pole, 40 A 208/240 Vac (max 40 A) PVI 7600TL 2-pole, 40 A 208/240 Vac (max 40 A)

4.4 Grounding Electrode Conductor (GEC)

Per NEC 690.47, a GEC must be installed, and the Grounding Electrode Terminal (GET) conductor must be sized in accordance with NEC article 250.166. The GET conductor should be terminated at the GET screw terminal inside the wiring box compartment.

4.5 Lightning and surge protection

Solectria PVI inverters are designed and certied to meet stringent UL 1741 / IEEE 1547 and

ANSI/ IEEE 62.41/62.42 AC lighting and surge requirements; however, every PV installation is unique, thus additional external UL/NEC AC and DC surge protection and solid grounding practice are recommended

4.6 Multiple inverters

Multiple Solectria PVI inverters are permitted at a common location if all applicable NEC, state, local building codes and local utility commissioning guidelines are met. In addition, each inverter should have its own dedicated AC branch protection circuit breaker and a dedicated PV string/ array, not to exceed the inverter’s ratings.

4.7 PV string considerations

There are a large number of PV module string combinations that will offer optimal performance from either the PVI 3800TL, PVI 5200TL, PVI 6600TL and PVI 7600TL inverters due to its wide MPP DC voltage range (200 V – 500 V).

INFORMATION!

INFORMATIONS!

Follow the temperature multiplication factors given in NEC 690.7 table and the PV module manufacturer specied V/Temp coefcient to ensure PV string voltage is less than < 600 Vdc. Maximum inverter PV input voltage for all possible weather conditions in the location of installation.

CAUTION!

PRUDENCE!

4.8 Inverter connections

4.8.1 General information

WARNING!

AVERTISSEMENT!

WARNING!

AVERTISSEMENT!

WARNING!

AVERTISSEMENT!

DANGER!

System wiring voltage losses should be no greater than 1 to 2

percent for optimal system efciency and performance.

Installation and commissioning must be performed by a licensed electrician in accordance with local, state, and National Electrical Code ANSI/NFPA 70 requirements.

Inputs and output circuits of this unit are isolated from the enclosure. System grounding must be done in accordance with the National Electrical Code (NEC), ANSI/NFPA 70 and Compliance is the responsibility of the installer.

Ensure no live voltages are present on PV input and AC output circuits, and verify that the DC disconnect, AC disconnect, and dedicated AC branch circuit breaker are in the “OFF” position, before inverter installation.

PV solar arrays produce hazardous voltages and currents when exposed to light which can create an electrical shock hazard. Use dark opaque sheets cover the PV solar array before wiring or connecting cable terminations

CAUTION!

PRUDENCE!

INFORMATION!

INFORMATIONS!

WARNING!

AVERTISSEMENT!

Before any electrical wiring can be connected to the inverter, the inverter must be permanently mounted.

Use solid or stranded copper conductors only. 6 AWG (16 mm2) is maximum allowed wire size.

Inverter warranty is VOID if the DC input voltage exceeds the inverter 600 Vdc maximum.

Figure 23: PVI 3800TL Inverter electrical diagram

Figure 24: PVI 5200TL, PVI 6600TL and PVI 7600TL Inverter electrical diagram

WARNING!

AVERTISSEMENT!

POWER FED FROM MORE THAN ONE SOURCE, MORE THAN ONE LIVE CIRCUIT. Please note that there are three DC inputs that may all carry current. Please see diagram above.

4.8.2 Opening the wiring box cover

WARNING!

AVERTISSEMENT!

DANGER!

DC Disconnect switch in OFF position

M6 screw

Figure 25: Removing the wiring box cover

head

1. Place DC Disconnect switch in “OFF” position. Please note the cover cannot be removed when the DC Disconnect switch is in the “ON” position.

2. Remove the 4 cover screws indicated above.

3. Lift the cover upward and place off to the side.

4.8.3 Wiring box conduit openings

Conduit openings are provided for 1 inch and ½ inch conduit ttings. If conduit tting used is between 1 inch and ½ inch (2.54 cm and 1.27 cm), an appropriate conduit reducer should be used.

1 in.1 in.

1 in.

1 in. 1 in. 1 in.

1/2 in.

Figure 26: Wiring box conduit opening locations

CAUTION!

PRUDENCE!

Do not enlarge the wiring compartment conduit openings as the wiring box enclosure will be damaged which will void the inverter warranty.

The conduit plugs are removed by pla-

cing a at blade screwdriver in the slot

on the conduit plug face and turning while gripping the nut on the inside of the enclosure to ensure it does not slip. Unscrew the nut from the conduit plug and slip the conduit plug out of the conduit opening.

Figure 27: Wiring box conduit plug removal (illustration showing the removal of a conduit plug)

0.5 inch

6 inches

Figure 28: Conduit installation and wiring routing

Conduit ttings need to be water tight with either a NEMA 4, 4X, 6, or 6X rating insulated type is

preferred.

Once conduit and ttings are installed, route wiring thru conduit and tting and allow a 6 inch

strain relief service loop within the wiring box compartment.

4.8.4 PV array string input connections

DANGER!

WARNING!

AVERTISSEMENT!

CAUTION!

PRUDENCE!

To ensure maximum protection against hazardous contact voltages while assembling photovoltaic installations, both the positive and the negative leads must be strictly isolated electrically from the protective ground potential (PE). All string fuses must be removed from wiring box.

– Risk of electric shock and re. Use only with PV modules with

a maximum system voltage of rating of 600V or Higher. – Electric shock hazard. The DC conductors of this photovoltaic

system are ungrounded and may be energized. – Electric shock hazard. The DC conductors of this photovoltaic

system are ungrounded but will become intermittently grounded without indication when the inverter measures the PV array isolation.

– Verify all DC conductor voltages and polarities with volt meter because damage to the inverter could result if incorrect DC

input voltage or polarity is connected. After verication of

correct voltage and polarity, DC fuses can be installed. NOTE: array VOC at extreme cold ambient temperature must be veri

ed by calculation never to exceed 600 VDC.

INFORMATION!

INFORMATIONS!

INFORMATION!

INFORMATIONS!

The PV Array positive or negative leads must not be connected to ground before the inverter!

All screw terminals accept solid or stranded copper 14 – 6 AWG

wire only. A 3.5 mm at blade screw driver is recommended for

tightening screw terminals to a 10.5 in-lbs. (1.2 Nm) torque.

PV_Positive Terminals

PV_Negnative Terminals

Figure 29: Wiring box - PV input connections

1. Verify that the exposed wires are at least 6 inches in length to provide adequate strain

relief and wire end strip length required. Secure the conduit into both ttings then tighten conduit ttings to manufacturer’s recommended torque.

2.. Connect the positive lead from each PV array string to 1 of the PV_Positive Terminals (A) in

the wiring box compartment. Using a 3/16” (4 mm) at blade cabinet screw driver tighten

the screw terminal to 10.5 in-lbs (1.2 Nm) of torque. Note: If the PV Array contains more than 3 PV Module strings then an external PV com-

biner is recommended.

3. Connect the negative lead from each PV array string to 1 of the PV_Negative Terminals (B)

in the wiring box compartment. Using a 3/16” (4 mm) at blade cabinet screw driver tighten

the screw terminal to 10.5 in-lbs (1.2 Nm) of torque.

4. Verify Inverter to wiring box compartment connections DC wiring board assembly:

• “BLACK“ wire goes to “PV_Positive” Terminal

• “WHITE” wire goes to “PV_Negative” Terminal

4.8.5 Selecting PV string fuse(s)

= 2 String Fuse

Holders (black)

Figure 30: String fuse locations

4.8.5.1 PV string fuse information and calculating string fuse size

The PVI 3800TL, PVI 5200TL, PVI 6600TL, and PVI 7600TL inverters are shipped with 3 X 15 A

600Vdc Littlefuse KLKD 15 string fuses. The provided string fuses may or may not be appropriate for your particular installation. Proper sizing of overcurrent protection is based on the maximum short circuit current Isc (module) and calculated in accordance with NEC Article 690 requirements.

NOTICE!

AVIS!

WARNING!

AVERTISSEMENT!

The maximum acceptable string fuse for the PVI Inverter is 20 A (KLKD 20). Use of larger fuses will void the warranty.

The string fuse rating should never exceed the Maximum Series Fuse Rating provided by the module manufacturer. This value is typically listed on the module label.

4.8.5.1.1 Calculating the minimum string fuse per NEC Article 690

The minimum string fuse size is calculated by multiplying the module Isc x 1.56. Thus, if we are using modules that have an Isc = 6.25 A, we would calculate our minimum string

fuse size as follows:

String Fuse (minimum) = 6.25 A x 1.56 = 9.75 A

Reviewing our Littelfuse KLKD series fuses, we nd that 10 A is the next available fuse size. Thus,

to satisfy the minimum string fuse requirements per NEC Article 690, we would remove the 15 A fuses shipped with the inverter and replace them with 10 A fuses.

A partial listing of the Littelfuse KLKD Fuses is as shown.

Part Number Amperage

KLK D 008. ............................ 8 A

KLK D 009. ............................ 9 A

KLK D 010. ............................ 10 A

KLK D 012. ............................ 12 A

KLK D 015. ............................ 15 A

KLK D 020. ............................ 20 A

It is worth noting that for this example we calculated the minimum series fuse rating. However, it may be appropriate to use the supplied 15 A fuses insofar as they do not exceed the maximum series fuse rating (provided by the module manufacturer) or the overcurrent protection requirements of your PV source wires. Please reference the appropriate NEC Article(s) for further discussion regarding proper sizing of overcurrent protection

4.8.5.1.2 Generic fuse properties

Other fuse manufacturers may have compatible fuse types. The generic properties are:

• Fast-acting

• Dimensions: 1 1/2” in length x 13/32” fuse diameter

• Interrupt Rating: >= 10 kA @ 600 Vdc

• UL and CSA approval of the fuse is mandatory

• String fuses can be sized from 1 A to max. 20 A and rated for 600 Vdc. Please see above

sec. 4.9.8.1.1 for calculating string fuse size.

4.8.5.2 String fuse replacement

WARNING!

AVERTISSEMENT!

DANGER!

PV solar arrays produce hazardous voltages and currents when exposed to light which can create an electrical shock hazard. Using dark opaque sheets, cover the PV solar array before wiring or connecting cable terminations.

1 2

Figure 31: String fuse replacement procedure

Note: Refer to Figure 31 for String Fuse Locations.

1. Gripping only the plastic tab on top of the fuse extractor, pull straight upwards without touching the fuse’s metal end caps or fuse-holder clips on printed circuit board.

2. Away from open wiring box compartment, open the fuse extractor door and tilt fuse extractor downward with a hand underneath to catch fuse as it slides out of fuse extractor.

3. Next place the replacement fuse into fuse extractor and tilt upward to keep fuse from dropping out. Close the fuse extractor door.

4. With fuse/fuse extractor parallel to empty fuse position, lower fuse extractor while aligning fuse caps with open fuse clips. Then push downward until the fuse snaps into the clips.

Follow the same procedure for replacing string fuses.

4.8.6 Inverter AC output wire connections

WARNING!

AVERTISSEMENT!

INFORMATION!

INFORMATIONS!

– Read all of the instructions, cautions, and warnings for the Solectria PVI Inverter and associated PV array documentati on.

– Installation and commissioning must be performed by a licensed electrician in accordance with local, state, and National Electrical Code ANSI/NFPA 70 requirements.

– Ensure no live voltages are present on PV input and AC output circuits, and verify that the DC disconnect, AC disconnect, and dedicated AC branch circuit breaker are in the “OFF” position, before inverter installation.

– Verify that the dedicated 2-pole 240 Vac / 208 Vac circuit breaker in the building electrical service panel is turned-off.

All screw terminals accept solid or stranded copper 14 – 6 AWG wire only. A 3/16“ (4 mm) at blade cabinet screw driver is recommended for tightening screw terminals to a 10.5 in-lbs (1.2 Nm) torque.

0.5 inch

6 inches

Figure 32: Conduit installation and AC wiring routing

Conduit ttings need to be water tight with either a NEMA 4, 4X, 6, or 6X rating insulated type is

preferred.

Once conduit and ttings are installed, route wiring thru conduit and tting and allowing a 6 inch

strain relief loop within the wiring box compartment. Potential AC voltage loss in AC wires is possible to determine for a given wire cross section and

wire length. Pages 37-38 contain diagrams for each PVI inverter model to help determine the best wire size for your particular installation. Solectria recommends you select a wire size and length to ensure a maximum voltage loss between 1 - 2 %. Please note that the diagrams only offer approximate voltage loss and more precise voltage loss should be calculated by a licensed electrician in accordance with local, state, and National Electrical Code ANSI/NFPA 70 requirements.

PVI 3800TL

Percentage of voltage loss with 208 V AC and 240 V AC service. The load used in the calculation is the max. continuous AC current of the inverter.

2.0%

1.6%

1.2%

0.8%

0.4%

AWG

Percent of voltage loss

0.0% 20 40 60 80 100 120 140

One way distance in feet

Figure 33: PVI 3800TL-AC voltage loss with different wire sizes and lengths

PVI 7600TL

Percentage of voltage loss with 208 V AC and 240 V AC service. The load used in the calculation is the max. continuous AC current of the inverter.

2.0%

1.6%

1.2%

AWG

0.8%

0.4%

Percent of voltage loss

0.0% 20 40 60 80 100 120 140

One way distance in feet

Figure 34: PVI 7600TL- AC voltage loss with different wire sizes and lengths

PE Terminal (Grid Ground)

L1 Terminal

C D

AC-side Terminals

N Terminal

B C

L2 Terminal

GET (Grounding Electrode Terminal)

Figure 35: Wiring box AC assembly – terminal labeling

NOTICE!

AVIS!

WARNING!

AVERTISSEMENT!

Stranded copper wire should be checked so that all strands go into the terminal opening.

AC disconnect may be required by your local AHJ. Please check local regulations to determine if the AC disconnect is required for your installation.

1. Mount the AC disconnect (if required by local AHJ) close enough to the inverter.

2. Install conduit tting and conduit into the wiring box compartment from AC disconnect or

utility service panel.

3. Thread the inverter’s AC output wires through cup piece of conduit and loosely t the conduit into the inverter’s open conduit tting and the DC disconnect or junction box conduit tting.

4. Route AC wiring through conduit and verify that the exposed wires are at least 6 inches in length to provide adequate strain relief and wire end strip length required. Secure the

conduit into both ttings then tighten conduit ttings to manufacturer’s recommended

torque.

5. Terminate inverter’s AC output wires inside the AC disconnect or junction box. – Connect the AC equipment GND wire to the PE screw terminal (A) and using a 3/16“ (4

mm) at blade cabinet screw driver tighten the screw terminal to to 10.5 in-lbs (1.2 Nm)

of torque. – Connect the “WHITE” Neutral wire to the “N” screw terminal (B), and using a 3/16“ (4

mm) at blade cabinet screw driver tighten the screw terminal to to 10.5 in-lbs (1.2 Nm)

of torque.

– Connect “RED” L1 wire to the “L1” terminal (D), and using a 3/16“ (4 mm) at blade cabi-

net screw driver tighten the screw terminal to to 10.5 in-lbs (1.2 Nm) of torque.

– Connect “BLACK” L2 wire to the “L2” terminal (C), and using a 3/16“ (4 mm) at blade

cabinet screw driver tighten the screw terminal to to 10.5 in-lbs (1.2 Nm) of torque.

NOTICE!

AVIS!

Stranded copper wire should be checked so that all strands go into the terminal opening.

If a neutral wire connection is required for the grid connection, make

NOTICE!

AVIS!

sure the neutral wire is securely connected to the neutral terminal. Loose neutral wire connection can result in incorrect grid voltage detection.

4.8.7 Inverter RS485 communication connections

WARNING!

AVERTISSEMENT!

Read all of these instructions, cautions, and warnings for the Solectria PVI inverter and associated PV array documentation.

Interface connection RS485

The Solectria PVI inverters offer an RS485 communication interface which can address up to 16 daisy chained inverters. For optimal performance, all unused interface connections must always be terminated by placing the termination jumper in the “on” position.

J1=RS485 port 1 J2=RS485 port 2

Figure 36: Inverter RS485 system diagram

NOTE: 1000‘ total length of RS485 cables

possible depending on site specics.

The Termination Jumper is shown in the diagram on the left. To enable

on off

termination place the jumper over the two upper pins next to the “on” label on the board. To disable termination place the jumper in the off position on the lower two pins.

J1 J2

RS485-2 RS485-1

Figure 37: RS485 Termination Jumper

RS485 connector pin-out

Figure 38: RS485 connector pin-out

RS485 data format

Baud Rate Programmable, 2400/4800/9600/19200/38400, default = 19200 Data Bit 8 Stop Bit 1 Parity N/A

Contact Solectria for available 485 cables for daisy-chaining 485 on multimple inverters or connecting to SolrenView monitoring logger.

5 Commissioning the PV system

WARNING!

AVERTISSEMENT!

WARNING!

AVERTISSEMENT!

Read all of these instructions, cautions, and warnings for the Solectria PVI inverter and associated PV array documentation.

Installation and commissioning must be performed by a licensed electrician in accordance with local, state, and National Electrical Code ANSI/NFPA 70 requirements.

WARNING!

Time: 12h

Date: DD.MM.YYYY

-------------------

Format

AVERTISSEMENT!

Verify that the dedicated 2-pole 240 Vac / 208 Vac circuit breaker in the building electrical service panel is turned-off.

NOTICE!

AVIS!

polarity once more simply by carefully using a 600 V, DC rated digital volt meter and probing the positive (+) and negative (-) PV array connections.

5.1 Status LEDs

No. Label Designation Color

With the disconnect in the “OFF” position, verify the PV input

(A) P (B) G

OWER

ROUND FAULT

RROR

Power Green Ground Fault Red

Error Yellow

Information on the LED messages is provided in “9. Diagnosis and maintenance”, p. 59.

5.2 Display and Keypad

5.2.1 Components

(A) Display

(B) Keys

ESC

5.2.2 Display layout

The display has 4 rows of 20 characters each.

The rst row contains the name of the currently displayed menu.

The second to fourth rows show the menu elements. A small arrow in the third row shows the currently selected menu item.

5.2.3 Keypad

ESC

Symbol Use

• Exit the current menu

• Cancel the setting of a value

• Move upwards in a menu

• Set a value (increase the value)

• Move downwards in a menu

• Set a value (decrease the value)

• Select a menu entry

• Open a congurable value for editing

• Finish editing (adopt the set value)

5.2.4 General menu structure

The menus have up to three levels:

[Main menu] ...

400 Production info

410 Current data 411 Current overview 412 Current data AC ... 420 Day statistics 430 Week statistics ... 500 User settings

Most menu names consist of a three-digit number and a menu title. See “12.3 Overview of menu structure” for an overview of the complete menu structure.

5.3 Inverter turn-on procedure

1. Turn on the DC disconnect (put in closed position).

2. Check for inverter initialization; all 3 LED indicators are illuminated.

3. Turn on the dedicated 2-pole 240 Vac / 208 Vac circuit breaker in the building electrical service panel (put in closed position).

4. Turn on the AC disconnect (put in closed position).

5. Refer to section 5 for setup process that needs to be completed before the inverter can begin feeding power to the grid.

5.4 Inverter turn-off procedure

Grid: US 208 D

-------------------

Grid Selection

1. Turn off the AC disconnect (put in open position).

2. Turn off the dedicated 2-pole 240 Vac / 208 Vac circuit breaker in the building electrical service panel (put in open position).

3. Turn off the DC disconnect (put in open position).

5.5 Standard initial commissioning

5.5.1 Brief overview of the commissioning steps

– Select the grid – Set up the RS485 communication

5.5.2 Detailed description of the commissioning steps

1. Check all connections and cables for damage and correct seating. Correct the installation if necessary.

2. Switch on the DC disconnect

→ The startup process of the inverter begins.

After the startup process and the automatic self-test, the initial commissioning procedure of the inverter starts and the Installation menu is displayed.

3. Select a grid.

Continue

Grids available for standard commissioning Display text Description

US 208 D

US 208 WYE

US 240 D

US 240 STING

US 240 SPLIT

US 208 DELTA

US 208V/120V WYE

US 240 DELTA

US 240/120 STING

US 240/120 SPLIT

-------------------

Grid: US 208 D

-------------------

Grid Selection

4. Select Continue and press the key.

Baud Rate: 19200

ID: 1

-------------------

RS485

-------------------

Baud Rate: 19200 1

-------------------

to reselection

ESC

ENTER

to confirm

Continue

→ The RS485 menu is displayed 5 Set the RS485 ID and the baud rate.

Congurableparameters

Display text Designation Description

Baud rate

NOTICE!

6. Select Continue and press the key.

RS485 ID 1 .. 255

Baud rate

Connecting multiple inverters via RS485.

AVIS!

– If multiple inverters are to be connected via RS485, select a different ID for each inverter. This ID will also be used later to identify each inverter when loading settings or transferring data.

RS485

Continue

–> The last menu is displayed

7 Press the

key to nish commissioning.

2400 | 4800 | 9600 | 19200 | 38400, the standard is 19200

Commissioning is now nished.

ESC

5.6 Setting values

Date and time

-------------------

Display settings

100 Install settings

Time: 13:10:20pm

Date: 18/06/2013

110 Date and time Format

Time: 13:10:20pm

Date: 18/06/2013

110 Date and time Format

Time: 13:10:20pm

Date: 18/06/2013

110 Date and time Format

You can set parameters in several menus. The

key increases the value of the parameter.

The

key decreases the value of the parameter.

The

key can be used to cancel the setting, and the original value is then displayed once more.

Pressing the The example on the next page illustrates the procedure for changing the value of a parameter.

This procedure is the same for all congurable parameters.

Example: Setting the date

Keys Action Result

key causes the new parameter value to be adopted.

1. Press the keys in the main menu to select the Install settings menu.

2. ..Press the key to open the 100 Install settings (installation settings) menu.

keys are used to change parameter values.

3. ..Press the key to open the 110 Date and time menu.

4. Use the keys to select Date menu item.

5. ..Press the key to begin making the setting.

→ The digits for the rst value (in this case the month) ash.

Keys Action Result

Time: 13:10:20pm

/2013

Time: 13:10:20pm

/07/2013

Time: 13:10:20pm

/07/2013

Time: 13:10:20pm

2013

Time: 13:10:20pm

2014

Time: 13:10:20pm

Date: 15/07/2014

6. Use the keys to set the month.

110 Date and time Format

Date: 18/07

7. Press the key to adopt the new value.

→ The digits for the second value (in this case the day) ash.

8. Use the keys to set the day.

110 Date and time Format

Date: 18

110 Date and time Format

Date: 15

9. ..Press the key to adopt the new value..

→ The digits for the last value (in this case the year) ash.

10. Use the keys to set the year.

110 Date and time Format

Date: 15/07/

110 Date and time Format

Date: 15/07/

11. ..Press the key to adopt the new value..

√ The value is adopted and the editing

mode is exited.

110 Date and time Format

6 Production Information

-------------------

NOTICE!

AVIS!

6.1 Overview

The 400 Production info menu contains current data and statistics. The information is write-protected and cannot be edited.

– Select the Production info menu item in the main menu. → The 400 Production info menu is displayed.

All production information is provided for orientation purposes only. The measuring devices and meters provided by the electricity supply company are the authoritative source of information for invoicing.

400 Production Info

Current Data Day Statistics

Structure of the 400 Production info menu

Sub-menu Content Description

410 Current data

420 Day statistics Statistics for AC, PV and ISO “6.3 Other statistics” 430 Week statistics 440 Month statistics 450 Y ear statistics 460 Total statistics

470 Feed-in settings

Current data for power, AC, PV, insulation

Settings for currency and revenue per kWh

“6.2 Current data”

“7.3 Grid feed-in settings”

480 Event journal List of operating state messages “8. Diagnosis and maintenance”

490 History

Statistics for the last seven days in which the inverter was in operation.

“6.3 Other statistics”

6.2 Current Data

-------------------

410 Current data

L1 Freq.: _.__Hz

L1 Current: _._A

PV1 Current: -.--A

PV1 Voltage: ---V

Relevant menu

The actual production data is provided in the menu 410 Current data.

Access

– Access the menu by navigating to Main menu > Production info > Current data. → The 410 Current data menu is displayed.

Current overview Current data AC

Structure

Sub-menu Contents and example display

411 Current overview

Current power and energy generation for the current day. Current operating state (see “8. Diagnosis and maintenance”)

412 Current data AC

416 Current data PV Data for: voltage, current

If there are messages, the list of messages can be opened by pressing the key. For a detailed description, see chapter “8. Diagnosis and maintenance”

Displays for: voltage, frequency, current, active power P, reactive power Q

412 Current data AC L1 Voltage: _V

416 Current data PV

Sub-menu Contents and example display

Time: 10:20:30

Date: 18/06/2013

41A Date and time

R iso-: _kΩ

R iso+: _k

41B Current isolat.

41A Date and time Shows the current date and time.

Use the 110 Date and time menu to set the values, see “7.2.1 Date and time”.

41B Current isolation Data for: maximum and minimum insulation resistances

6.3 Other statistics

420 Day statistics 430 Week statistics 440 Month statistics 450 Y ear statistics 460 Total statistics 490 History

Example display

420 Day statistics Day stat. AC

Day stat. PV Day stat. ISO

The statistics for day, week, month, year and total production time all offer the same type of data. The 490 History menu shows the statistics for the last seven days over which the inverter was in

operation.

Day: 10.10.12

490 History Day: 10.10.12

L1 ΔU: ---/---V

L1 Imax: --.--A

421 Day stat. AC

L1 Δf: --.--/--.--Hz

PV1 Pmax: _W

PV1 Umax: _V

422 Day stat. DC PV1 Imax: _._A

Structure

Sub-menu Contents

421 Day stat. AC Statistics for: total energy, runtime, revenue 431 Week stat. AC 441 Month stat. AC 451 Year stat. AC 461 Total stat. AC

422 Day stat. DC Displays for: 432 Week stat. DC Pmax Maximum power 442 Month stat. DC Imax Maximum current 452 Year stat. DC Umax Maximum voltage 462 Total stat. DC

Information on conguring the revenue settings is provided in “7.3

Grid feed-in settings”.

Displays for:

Δf Minimum/maximum frequency

Imax Maximum current

ΔU Minimum/maximum voltage

Pmax Maximum active power Qmax Maximum reactive power Qmin Minimum reactive power

Sub-menu Contents

R ISO min: ----kΩ

R ISO max: ----k

423 Day stat. ISO

Revenue: --.--USD

Runtime: -:--h

491 Day 18.06.2013 Energy: ----Wh

423 Day stat. ISO Statistics for: maximum/minimum insulation resistances 433 Week stat. ISO 443 Month stat. ISO 453 Year stat. ISO 463 Total stat. ISO

Pmax Maximum power Imax Maximum current

491 ... 497 Day ...

6.4 Deleting statistics

Description

All statistics can be deleted (except for 410 Current data). The procedure is always the same.

1. Navigate to Production info > Feed-in settings > statistics. → The 471 statistics menu is displayed.

2. Use the keys to select the statistic you wish to delete (e.g., Reset day stat.) and press the

Statistics for the last 7 days in which the inverter was in operation. The statistics contain the same information as the menus 421, 422

and 423.

key.

→ A conrmation query is displayed.

-------------------

3. Select the option Yes and press the

key to delete the statistic.

Reset day stat.

No Yes

→ A conrmation message is displayed.

Reset day stat.

Successful Press Enter

The statistic is deleted.

7 Settings

7.1 Overview

This chapter describes how to edit the congurable settings.

• Installation settings (“7.2 Installation settings”)

• Grid feed-in settings (“7.3 Grid feed-in settings”)

• Options settings (“7.4 Options settings”)

• Standard menu (“7.5 Standard menu”)

Information on operating the display is provided in “5.2 Display and keypad”.

7.2 Installation settings

Congurablesettings

• Date, time

• Date and time format

• Contrast

• Grid selection

• RS485 settings

7.2.1 Date and time

Time: 13:10:20pm

Date: 18/06/2013

110 Date and time Format

Time: 13:10:20pm

Date: DD/MM/YYYY

Description

Menu 110 Date and time

Menu access Main menu > Install settings > Date and time Example display

Congurableparameters

Display text Designation Description

Date

Time

7.2.2 Date and time formats

Description

Date

Time

Feedly congurable according to the selected date

format.

Feedly congurable according to the selected time

format.

Menu 111 Format

Menu access Main menu > Install settings > Date and time > Format Example display

Congurableparameters

Display text Designation Description

Date

Time

111 Format

Date format

DD.MM.YYYY DD/MM/YYYY DD-MM-YYYY

12h | 24h

7.2.3 Contrast

PIN: ____ Confirm

Key: ###########

132 Grid change Grid: US 208 D

Description

Menu 120 Display settings

Menu access Main menu > Install settings > Display settings Example display

Congurableparameters

Display text Designation Description

Contrast

Display Contrast 5...10

7.2.4 Grid selection

DANGER!

If the selected grid is changed, a completely new commissioning process is started, see “5. Commissioning the PV system”.

Always rst contact the Solectria Support Team before changing the selected grid!

You always require a PIN in order to enter the grid selection mode.

NOTICE!

AVIS!

You require a new PIN each time you wish to select a new grid. You obtain a PIN from the Solectria Support Team on request.

You must provide a key in order to receive a PIN. You will nd the key in the menu 132 Grid

change.

1. To display the key, navigate to Main menu > Install settings > Grid selection> Grid change.

The key consists of 11 numbers and letters.

Key: ###########

Grid: US 208 D

Language: English

-------------------

Baud rate: 19200

ID: 1

-------------------

2. The Solectria Support Team will provide you with the four digit PIN.

3. When you have received the PIN, navigate to the menu 132 Grid change and press the key.

→ The rst digit of the PIN ashes.

4. Use the

→ After entering the full PIN, the word Conrm ashes.

keys to set the rst digit and press the key to proceed to the next digit.

132 Grid change

PIN: 1234 Confirm

5. Press the key to conrm the entered PIN. → The Installation menu is displayed.

Installation

continue

6. Start the commissioning of the inverter, see “5. Commissioning the PV system”.

7.2.5 RS485

Description

Menu 111 Format

Menu access Main menu > Install settings > RS485 Example display

140 RS485

Congurableparameters

Display text Designation Description

Baud rate

RS485 ID 1...255

Baud rate

2400 | 4800 | 9600 | 19200 | 38400, the standard is 19200

Connecting multiple inverters via RS485.

NOTICE!

AVIS!

► Select a different ID for each inverter. ► A 220 ohm termination resistor must be connected to the last

inverter in the series (see “4.8.7 Inverter RS485 Communication Connections”).

7.3 Grid feed-in settings

Description

Menu 470 Feed-in settings

Menu access Main menu > Production info> Feed-in settings Example display

Congurableparameters

Display text Designation Description

Currency

USD / kWh

Currency No pre-dened values.

USD/kWh

No pre-dened values. The amount (USD) per

kWh is required for the revenue calculation.

7.4 Options settings

Congurablesettings

• Shading

7.4.1 Shading

Description

The “Shading“ option is an extended MPP tracker. When the option is switched on, the MPP tracker performs an additional search at regular intervals.

The MPP tracker then searches for the maximum power over a wider voltage range. This option should be switched on if shadows regularly pass slowly over the PV modules in

the course of a day. These types of moving shadows can be caused by chimneys or trees, for example. This option has a relatively small effect in the case of fast-moving shadows, e.g., from passing clouds.

The option is set depending on the size of the shading.

Menu 210 Shading

Menu access Main menu > Options > Shading Example display

Congurableparameters

Display text Designation Description

Mode

Mode Disabled

Extended MPP tracking is disabled High High shading, time cycle: 0.5 hours Medium Medium shading, time cycle: 2 hours Low Low shading, time cycle: 4.5 hours

ESC

7.5 Standard menu

Description

A standard menu can be dened, which is automatically displayed when the display keys are not used for a certain period of time. When the standard menu is displayed, pressing the displays the main menu.

The standard menu is set to 411 Current data at the factory. This menu shows the current data and current operating messages.

The number must be a valid menu number. See “12.3 Overview of menu structure” for an overview of all available menu numbers.

key

1. Press the

→ The rst digit ashes.

2. Enter the rst digit of the menu number using the keys.

→ You can only set menu numbers that actually exist. The name of the associated menu is

displayed in the fourth display row.

3. Once you have set the rst digit, press the

→ The second digit ashes.

4. Enter the second and third digit in the same manner.

5. Press the

→ The menu corresponding to the entered menu number is displayed.

Menu 800 Standard

Menu access Main menu > Standard Example display

key to enter the menu number.

key.

Congurableparameters

Display text Designation Description

Menu number

Menu number Any valid menu number.

8 Diagnosis and maintenance

8.1 Operating states

8.1.1 Types of operating states

Operating state

Normal operation

Limited operation

Warning

Failure No Insulation or

grounding failure

See chapter "8.1.2 Factors inuencing the operating state" for a description of the inuencing

factors. Note: When in failure mode, the inverter will not produce power.

8.1.2 Factorsinuencingtheoperatingstate

Different inuencing factors are assigned to the individual operating states. These inuencing

factors are divided into the following categories.

Associatedinuencing

factors

No factors are present that

inuence the production results.

Non-critical factors that can affect the production results but which are not failures (e.g., self-test).

External events or internal failures are present that affect the production results.

Problems exist with insulation No

Grid feed-in

Yes

Different

Yes

Non-critical factors

Non-critical factors are (for example) the self-test or a DC voltage that is too low due to bad weather. Non-critical factors are therefore not failures.

Events

Events are usually caused outside the inverter. Events are divided into external events (e.g., voltage or frequency errors) and parameter changes occurring via the keys or the RS485 interface.

Internal failures

Internal failures are caused from within the inverter and must be corrected with help of the Solectria Support T eam.

Insulation and grounding failures

Insulation and grounding failures are logged and displayed when this failure occurs.

8.1.3 Display of the current operating state

The actual operating state is indicated via LEDs. A short message is also shown in the fourth line of the 411 Current overview menu.

The 411 Current overview menu is automatically displayed when a new message arrives.

Message category LED status Display text in menu 411

Normal operation

Limited operation

General warning messages

General failure messages

Insulation or grounding failure

Normal operation

e.g. Self-test

For external events: External events For internal failures: Warning ### (3-digit

number)

For external events: External events For internal failures: Failure ### (3-digit

number)

Insulation

The software denes which events trigger a warning and which events trigger a failure.

8.2 Event journal

-------------------

Begin

L1 Islanding

481 External events

18.06.2013 17:29:56

8.2.1 Overview

Menu 480 Event journal

Menu access Main menu > Production info> Event journal Example display

480 Event journal

External events

Change events

The event journal contains the messages relating to the following events:

• Parameter changes - Changes to all parameters inuencing the energy production and thus

also the revenue.

• External events - Problems with the insulation and grounding

Sub-menu Description

481 External events A list of all external events. 482 Change events A list of parameter changes made via the display or via RS485.

8.2.2 External events menu

Description

Menu 481 External events

Menu access Main menu > Production info> Event journal > External events Example display

The external event message has the following structure:

2nd line Date and time when the external event occurred..

3rd line

4th line

Short description of the failure (see chapter "8.3 Troubleshooting and correction")

Additional information, e.g., "Begin" for the occurrence of an event or "End" for the disappearance of an event.

8.2.3 Change events menu

Max. power: 90%

Max. power: 100%

18.06.13 17:29:56 D

Description

The 482 Change events menu contains a chronological list of all changes to parameters inuencing the energy production and thus also the revenue.

Menu 482 Change events

Menu access Main menu > Production info> Event journal > Change events Example display

The parameter change entry has the following structure:

Menu 482 Change events

2nd line Date and time when the external event occurred.

3rd line Name of the changed parameter + previous value 4th line Name of the changed parameter + new value

482 Change events

Source of the change: D: Display E: External (RS485) S: System

8.3 Troubleshooting and correction

External events

Day: 0Wh

411 Current overview Now: -W

Insulation

Day: 0Wh

411 Current overview Now: -W

-------------------

PV1 ISO startup fail

PV1 ISO running fail

External events

-------------------

480 Event journal

-------------------

480 Event journal

8.3.1 External events / Insulation and grounding failures

The 411 Current overview menu shows one of the following messages:

1. To receive a more exact description of the problem, press the key in the 411 Current overview menu.

→ The External events menu is displayed.

The menu contains a list of all active messages relating to external events and insulation/grounding.

2 press the → The 480 Event journal menu containing the detailed message text is displayed

(see "8.2 Event journal").

key again.

External events

Change events

3 Select the entry External events and press the key again.

External events

Change events

18.06.2013 17:29:56

→ The 481 External events menu is displayed.

481 External events

L1 Islanding Begin

Alternatively, you can also directly open the 483 External events menu via the “Go to menu“ function, see chapter "12.3.1 ‘Go to menu‘ function".

The following table shows the failure messages that can appear in the 483 External events menu and provides troubleshooting and correction suggestions.

LED Display message Message description Fault correction

Warning ###

Internal failure ("Warning" + three-digit number)

► Please contact Solectria Support.

Failure ###

L1 Voltage failure

L1 Frequency error

Internal failure ("Failure" + three-digit number)

► Please contact Solectria Support.

AC overvoltage or undervoltage on phase L.

► Check the grid voltage shown on the display (menu 412 Current data AC).

► If no voltage is present, check the circuit breaker.

AC high frequency or low frequency on phase L.

► Check the grid frequency shown on the display (menu 412 Current data AC).

► If no voltage is present, check the automatic circuit

breaker.

LED Display message Message description Fault correction

Warning 123

Day: _Wh

Failure 351

Day: _Wh

411 Current data L1 _W

L1 Islanding

Frequency shift failure on phase L.

► Ask your electricity utility about the current state of the grid.

► Check the installation.

► Restart the inverter. Contain your maintenance technician if

the failure persists.

PV Power too low

PV1 ISO startup fail

PV1 ISO running fail

8.3.2 Internal failures

In the case of an internal failure, the message "Warning XXX" or "Failure XXX" is displayed in the 411 Current overview menu. XXX stands for a 3-digit failure number.

The solar power is too low.

Insufcient solar irradiation (dawn/dusk)..

► Check the PV array voltage shown on the display (menu

416 Current data PV).

The startup insulation is too low.

► Check the insulation resistance at the DC side of the PV

modules.

Residual current beyond the safety standard.

► Check the insulation resistance at the DC side of the PV

modules.

411 Current data L1 _W

In the case of internal failures, always contact the Solectria Support Team (see address list on the rear cover of this manual).

8.3.3 Other LED and display messages

Fnom: --.--Hz

Grid: US 208 D

##.##kW

has been limited to

The maximun power of that inverter

LED Display message Message description Fault correction

PV1 Voltage too low

L1 Power reduction

PV1 PW limit to Pn

PV1 Temp derating

8.4 Displaying grid settings

Description

The PV1 voltage is too low.

There is insufcient solar irradiation. ► Check the PV cell voltage shown on the display (menu 416

Current data PV).

Power reduction activefor L1.

Power limiting active for PV1. Temperature derating active for PV1. Reduced electricity

production. The internal temperature of the inverter is between +45 and

+70 °C.

► Check the ventilation of the inverter.

► Prevent direct sunlight on reaching the inverter.

The actual grid settings can be displayed using the 131 View grid setup menu. The contents of this menu are write-protected.

Menu 131 View grid setup

Menu access Main menu > Install settings >Grid selection> View grid setup Example display

If a power limit was set when the inverter was commissioned, then the following message is displayed before the menu opens:

131 View grid setup

8.5 Internal log

Description

The internal log contains information on the internal failures that have occurred.

Menu 620 Internal log

Menu access Main menu > Diagnostic&Alarm > Internal log Example display

620 Internal log

12.04.12 7:39:25 126 127

Parameter change entries have the following structure

3rd Line Date and time when the external event occurred. 4th Line Number(s) of the internal failure(s)

8.6 Maintenance

DANGER!

Danger of death from hazardous voltage.

Hazardous voltage exists while the inverter is operating. Hazardous voltage may still be present 5 minutes after all power sources have been disconnected. ► Never open the inverter. The inverter contains no components that are user serviceable. Opening the cover will void the warranty.

Ensure that the inverter is not covered during operation. Regularly clean the inverter to prevent soiling of the enclosure.

9 Repair

DANGER!

Danger of death from hazardous voltage.

NOTICE!

AVIS!

The inverter contains no components that are user serviceable.

10 Removal, transport, storage, disposal

10.1 Removal

1. Switch off the AC breaker and verify absense of AC voltage.

2. Open the DC disconnect, verify the absense of DC voltage on both the inverter

3. Remove DC and AC conductors and conduits from the inverter.

4. Unscrew the inverter from the wall bracket.

5. Lift the inverter from the wall bracket.

DANGER!

Danger of death or severe injuries from dangerous voltage

► Disconnect the inverter from the AC grid before removing the AC conductors. ► Verify absence of AC voltage before removing conductors.

DANGER!

Danger of death or severe injuries from dangerous voltage

Dangerous voltages can be present at the DC connections of the inverter. ► Never disconnect the PV modules when the inverter is connected to AC grid or DC disconnect is on. First switch off the AC conductors grid so that the inverter cannot feed energy into the grid. Then, open the DC disconnect. ► Verify absence of DC voltage before removing conductors.

WARNING!

AVERTISSEMENT!

Danger of injury due to heavy weight

The inverter is heavy (see “11. Techical Data”, p. 71). Incorrect handling can lead to injuries. ► The inverter must be lifted and carried by two people.

and array sides, then disconnect PV array.

10.2 Packaging

Use the original packaging or packaging of the same quality.

10.3 Transport

Always transport the inverter in the original packaging or packaging of the same quality.

10.4 Storage

Always store the inverter in the original packaging or packaging of the same quality. Observe the

specications relating to storage conditions described in chapter 11: “Technical data”.

10.5 Disposal

Dispose of the inverter in a technically appropriate manner according to the legal requirements of your country, state and municipality.

11 Technical data

INPUT (DC) PVI 3800TL PVI 5200TL PVI 6600TL PVI 7600TL

Max. recommended PV power

Max. System Voltage

Operational Voltage range

Full powerr MPP range

Max. current 20 A 15 A per MPP tracker 18 A per MPP tracker 20 A per MPP trachker

4580 W

6200 W

600 V

120 ... 550 V

200... 500 V

8000 W

9100 W

DC disconnect Internal

MPP tracker 1 2 2 2

MPP efficiency

99.8% (static)

99.5% (dynamic)

OUTPUT (AC) PVI 3800TL PVI 5200TL PVI 6600TL PVI 7600TL

Nominal power 3800 W 5200 W 6600 W 7600 W

Max. power

Voltage range

Nominal current

3300 W @ 208 V /

3800 W @ 240 V

15.8 A @ 208 V /

15.8 A @ 240 V

5200 W @ 208 V /

5200 W @ 240 V

183...228 V @ 208 V /

211...264 V @ 240 V

25 A @ 208 V /

21.6 A @ 240 V

6600 W @ 208 V /

6600 W @ 240 V

31.7 A @ 208 V /

27.5 A @ 240 V

6600 W @ 208 V /

7600 W @ 240 V

31.7 A @ 208 V /

31.7 A @ 240 V

Max. current 16 A 25 A 32 A 32 A

Nominal frequency 60 Hz

Frequency range 59.3-60.5 Hz

Night consumption < 1 W Total harmonic

distortion

@ norminal power Power factor @

norminal power Reactive power

capability

< 3%

0.99

Yes

)

GENERAL SPECIFICATION

PVI 3800TL PVI 5200TL PVI 6600TL PVI 7600TL

Max efficiency 98%

CEC efficiency 97.5%

Operating temperature

Storage temp.

-13 - +158 °F (-25 - +70 °C) / Derate above 122 °F (50 °C)

-40 - +185 °F (-40 - +85 °C)

Humidity 0 ... 100% Max operating

altitude

2000 m above sea level

MECHANICAL DESIGN

Dimensions L x W x D inches (L x W x D) mm

Weight 42 lbs (19 kg) 64 lbs (29 kg) 64 lbs (29 kg) 64 lbs. (29 kg)

Cooling Convection

AC connectors Screw terminals in connection box

DC connectors Screw terminals in connection box

PVI 3800TL PVI 5200TL PVI 6600TL PVI 7600TL

17.72 x 15.75 x 6.89 (450 x 400 x 175)

23.23 x 15.75 x 6.89 (590 x 400 x 175)

Communication interface

Display 3 LEDs, 4-line LCD

Enclosure material Aluminum

STANDARDS / DIRECTIVES

Electronics protection rating

Safety

SW Approval UL 1998 To Be Certified

Isolation Monitor Interrupt (IMI)

Anti-islanding protection

EMC

AFCI

PVI 3800TL PVI 5200TL PVI 6600TL PVI 7600TL

NEMA 4 To Be Certified

UL 1741, CSA 22.2 No.

107-01

NEC 690.35, UL1741

CRD

IEEE 1547, IEEE 1547.1 To Be Certified

FCC part 15 A & B,

ICES-003

UL169B, NEC 690 2011

(Available March 2014)

RS485

To Be Certified

WARRANTY PVI 3800TL PVI 5200TL PVI 6600TL PVI 7600TL

Standard warranty 10 years

Extended warranty Based on request (15 or 20 year options)

11.1 FCC Compliance Information

SOLECTRIA RENEWABLES, LLC. string inverters, Model PVI 3800TL, PVI 5200TL, PVI 6600TL and PVI 7600TL.

This device complies with Part 15 of the FCC Rules. Operation is subject to the following conditions:

(1) This device may not cause harmful interference, and (2) This device must accept any interference, including interference that may cause undesired operation.

Note: This equipment has been tested and found to comply with the limits for a Class B digital device, pursuant to part 15 of the FCC Rules. These limits are designed to provide reasonable protection against harmful interference in a residential installation. This equipment generates, uses and can radiate radio frequency energy and, if not installed and used in accordance with the instructions, may cause harmful interference to radio communications. However, there is no guarantee that interference will not occur in a particular installation. If this equipment does cause harmful interference to radio or television reception, which can be determined by turning the equipment off and on, the user is encouraged to try to correct the interference by one or more of the following measures:

Reorient or relocate the receiving antenna Increase the separation between the equipment and the receiver Connect the equipment into an outlet on a circuit different from that to which the receiver is connected. Consult the dealer or an experienced radio/TV technician for help.

The user is cautioned that changes or modications not expressly approved by SOLECTRIA

RENEWABLES could void the user‘s authority to operate this equipment. Contact SOLECTRIA RENEWABLES for more information:

SOLECTRIA RENEWABLES

360 Merrimack Street Building 9, Floor 2 Lawrence, MA 01843 U.S.A http://www.solren.com/products-and-services/grid-tied-solar-inverters/residential/pvi3800-7600TL-solar-inverter

Support Email: service@solectria.com

Support Hotline: 978-683-9700

11.2 Canadian Compliance Information

This Class B digital apparatus complies with Canadian ICES-003.

12 Appendix

12.1 Overview of setting options

The following table contains an overview of all settings that can be made in the inverter.

Function / Characteristic

Options

Shading

Display settings

Date and time For setting the date and time Date and time

format Contrast For setting the contrast

Standard menu

Monitoring

RS485 settings

Showing statistics

Showing statistics on the display

Feed-in settings

Currency, revenue per kWh

Short description Menu Manual chapter

For setting up the extended MPP tracking

For setting the date and time formats

For selecting the display to be shown when no key has been pressed for a certain period of time.

For setting the RS485 ID and the baud rate and for switching the termination resistor on and off

For setting the currency and the revenue per kWh

200 Options

“7.4 Options settings”

210 Shading

“7.4.1 Shading”

110 Date and time

“7.2.1 Date and time”

111 Format

“7.2.2 Date and time formats”

120 Display settings

“7.2.3 Contrast”

800 Standard

“7.5 Standard menu”

150 RS485

“7.2.5 RS485”

400 Production info

“6. Production information”

471 Feed-in settings

“7.3 Grid feed-in settings”

12.2 Order numbers

ESC

Menu: 000

-------------------

Go to menu

RS485 cable

RS485 connection cable Cable for connecting inverters

Please contact Solectria for available options.

12.3 Overview of menu structure

12.3.1 "Go to menu" function

NOTICE!

AVIS!

1. To open the Go to menu function, press and hold the seconds.

→ Go to menu opens.

2. Press the key to enter the menu number.

→ The rst digit ashes.

3. Enter the rst digit of the menu number using the keys. Press the key when you are nished.

→ The second digit ashes.

4. Enter the second and third digit in the same manner.

5. Press the

→ The menu corresponding to the entered menu number is displayed.

key.

You can use the “Go to menu” function to directly navigate to a particular menu.

key on the inverter for at least 3

12.3.2 Installation settings (100)

100 Installation

130 Grid selection

140 RS485

110 Date and time

Date: 18/06/2013

Time: 15:12:23

111 Format

Date: DD/MM/YYYY

Time: 24h

120 Display settings

Contrast: 10

130 Grid selection

131 View grid setup

132 Grid change

Explanation

Display the grid settings, change the grid Change RS485 settings

Explanation

Date Time Date and time formats

Explanation

Date format Time format (12h or 24h)

Explanation

1...10

Explanation

Actual grid settings Set a different grid

140 RS485

ID: ---

Baud rate:

Explanation

If multiple inverters are connected via RS485, then each inverter must have a different ID. (1 ... 254)

Baud rate (2400 / 4800 / 9600 / 19200 / 38400)

12.3.3 Shading (210)

Mode

Disable

High

Medium

Low

210 Shading

Mode Disable

12.3.4 Production information (400)

400 Production info

410 Current data

420 Day statistics

430 Week statistics

440 Month statistics

450 Year statistics

460 Total statistics

470 Feed-in settings

480 Event journal

490 History

Explanation

Monitoring is deactivated. High shading, time cycle: 0.5 hours Medium shading, time cycle: 2 hours Low shading, time cycle: 4.5 hours

Explanation

Disabled / High / Medium / Low

Explanation

Current power and energy values. Messages on the current operating status.

Statistics for the current day Statistics for the current calendar week Statistics for the current calendar month Statistics for the current calendar year Statistics for the entire operating period Settings for currency and revenue per kWh Messages off events Power and energy value of latest 7 days

410 Current data

411 Current overview

412 Current data AC

416 Current data PV

41A Date and time

41B Current insulation

Explanation

Current status AC = AC side PV = module side Date and time Insulation resistance value

411 Current overview

Now: 200W

Day: 2000Wh

Normal operation

Explanation

Current active power Energy production current day Current status messages

412 Current data AC

L1 voltage: ---V

L1 Freq.: --.--Hz

L1 Current: -.--A

L1 P: ---W

L1 Q: ---Var

L1 DC inj.: ---mA

416 Current data PV

PV1 Voltage: ---V

PV1 Current: -.--A

41A Date and time

Date: 18.06.2013

Time: 15:05:19

41B Current insulation

R iso: ----kΩ

Explanation

Voltage Frequency Phase current Active power Apparent power Feed-in current

Explanation

Voltage on the PV side Current on the PV side

Explanation

Current date Current time

Explanation

Insulation resistance at DC+

420 Day statistics

421 Day statistics AC

422 Day statistics DC

423 Day statistics ISO

430 Week statistics

440 Month statistics

450 Year statistics

460 Total statistics

470 Feed-in settings

480 Event journal

490 History

Explanation

AC = AC side DC = DC side ISO = Insulation

421 Day statistics AC

Energy: ---Wh

Runtime: -:--h

Revenue: ---USD

L1 Imax: -.--A

L1 Pmax: ---W

L1 Qmax: ---Var

L1 Qmin: ---Var

431 Week statistics AC

441 Month statistics AC

451 Year statistics AC

461 Total statistics AC

Explanation

Energy Runtime Revenue Maximum current Maximum active power Maximum apparent power Minimum apparent power

491 Day

Energy: ---Wh

Runtime: -:--h

Revenue: ---USD

L1 Imax: -.--A

L1 Pmax: ---W

L1 Qmax: ---Var

L1 Qmin: ---Var

492 Day

493 Day

494 Day

495 Day

496 Day

497 Day

Explanation

Energy Runtime Revenue Maximum current Maximum active power Maximum apparent power Minimum apparent power

422 Day statistics DC

PV1 Imax: ---A

PV1 Umax: ---V

PV1 Pmax: ---W

432 Week statistics DC

442 Month statistics DC

452 Year statistics DC

462 Total statistics DC

Explanation

Max. current Max. voltage Max. power

423 Day statistics ISO

R ISO max: ---kΩ

R ISO min: ---kΩ

433 Week statistics ISO

443 Month statistics ISO

453 Year statistics ISO

463 Total stat. ISO

Explanation

Max. insulation resistance Min. insulation resistance

470 Feed-in settings

Currency USD

USD / kWh: #.##

480 Event journal

481 External events

482 Change events

12.3.5 Diagnostics and Alarms (600)

The reports that are displayed depend on the grid that has been set:

• Internal log (is always displayed)

600 Diagnostic&Alarm

620 Internal log

13.3.6 Software version/inverter data (700)

700 Inverter info

710 Software vers.

720 Inverter data

Explanation

Dene the currency

Dene the revenue pro kWh

Explanation

Overview of all external events and insulation/ grounding problems

Overview of all parameter changes

Explanation

Firmware update

Explanation

Version of the installed software Production date and serial number

12.3.7 Standard menu (800)

800 Standard menu

Menu number:

12.4 Installation example on a 3-phase 208 or 240 VAC electrical system

12.5 Wiring diagrams

Explanation

Number of the menu that is to be displayed as the standard menu.

13 Glossary

Abbreviation for “Alternating Current”.

AHJ

Abbreviation for “Authority Having Jurisdiction” (electrical inspector).

Anti-islanding protection

This is a unit for grid monitoring with assigned switching elements (anti-islanding protection) and is an automatic isolation point for small power generation systems (to 30 kWp).

Basic Insulation

Insulation to provide basic protection against electric shock.

With the CE identication code, the manufacturer conrms the conformity of the product with the valid CE Guideline and compliance with the signicant requirements stipulated therein.

CEC

Abbreviation for the California Energy Commission

CECEfciency

CEC Efciency is the California Energy Commission Efciency rating, a performance rating for

modules and inverters based on the real environment that a system will be in.

CSA

Abbreviation for the Canadian Standards Association.

Abbreviation for “Direct Current”.

EMC

The Electro-Magnetic Compatibility (EMC) concerns the technical and legal basics of the mutual inuencing of electrical devices through electromagnetic elds caused by them in electrical engineering.

FCC

FCC is the abbreviation for Federal Communications Commission.

Galvanic isolation

No conductive connection between two component parts.

GEC

Grounding Electrode Conductor

GET

Grounding Electrode T erminal

IEEE

The Institute of Electrical and Electronics Engineers or IEEE (read I-Triple-E) is an international

non-prot, professional organization for the advancement of technology related to electricity.

IMI

Isolation Monitor Interrupter

Initialization

Under initialization is understood the part of the loading process of a program, in which the storage space required for the execution (e.g. variable, code, buffers ...) for the program is reserved and is

lled with initial values.

Short Circuit Current

Local utility company

A local utility company is a company which generates electrical energy and distributes it over the public grid.

MPP

The Maximum Power Point is the point on the current-voltage (I-V) curve of a module, where the product of current and voltage has it’s maximum value.

NEC

The National Electrical Code (NEC), or NFPA 70, is a United States standard for the safe installation of electrical wiring and equipment.

Nominal power

Nominal power is the maximum permissible continuous power output indicated by the manufacturer

for a device or a system. Usually the device is also optimized so that the efciency is at its maximum

in case of operation with nominal power.

Nominal current

Nominal current is the absorbed current in case of electrical devices if the device is supplied with the nominal voltage and yields its nominal power.

In electric systems and cables a protective earth conductor is frequently employed. This is also called grounding wire, protective grounding device, soil, grounding or PE (English „protective earth“).

Photovoltaics (abbr.: PV)

The conversion of PV energy into electrical energy. The name is composed of the component parts: Photos - the Greek word for light - and Volta - after Alessandro Volta, a pioneer in electrical research.

Power dissipation

Power dissipation is designated as the difference between absorbed power and power of a device or process yielded. Power dissipation is released mainly as heat.

PV cell

PV cells are large-surface photodiodes which convert light energy (generally sunlight) into electrical energy. This comes about by utilization of the photoelectric effect (photovoltaics).

PV generator

System comprising of a number of PV modules.

PV module

Part of a PV generator; converts PV energy into electrical energy.

RJ45

Abbreviation for standardized eight-pole electrical connector connection. RJ stands for Registered Jack (standardized socket).

RS485 (EIA485)

Differential voltage interface on which the genuine signal is transmitted on one core and the negated (or negative) signal on the other core.

Separate grid system

Energy supply equipment which is completely independent of an interconnected grid.

Inverter

is an electrical device which converts DC direct voltage into AC voltage and/or direct current into alternating current.

String

Designates a group of electrical PV modules switched in series.

String inverter (inverter concept)

The PV generator is divided up into individual strings which feed into the grid over their own string inverters in each case. In this way, the installation is considerably facilitated and the gain decrease, which can arise from the installation or from different shading conditions of the PV modules, is considerably reduced.

Stands for Underwriters Laboratory, an organization that sets standards for dif ferent product categories and tests products to make sure they meet the standards.

Open Circuit Voltage

14 Certicates

Not all certicates for the Solectria PVI 3800TL, PVI 5200TL, PVI 6600TL and PVI 7600TL were available at the time of print. Please check our web site for the most recent certica-

tes at: http:// www.solren.com/products-and-services/grid-tied-solar-inverters/residential/pvi3800-7600TL-solar-inverter for the most recent certicates.

15 Warranty

Warranty Registration:

It is important to have updated information about the inverter location. Please visit http://www.solectria.com/registration and complete the information requested for each inverter.

The Solectria Renewables Warranty Policy is stated below.

1.1.1 Definitions:

Standard Limited Warranty: The initial warranty period provided for the product. Extended Limited Warranty: A purchased warranty for a number of years after the expiration of the Standard Limited Warranty . Coverage is the same as the Standard Limited W arranty. The maximum number of years for entire warranty period is 20 years for certain products. Parts Only Limited Warranty: A purchased warranty for a number of years after the expiration of the Standard Limited Warranty, includes Parts Only, additional charges apply for travel, labor, shipping.

1.1.2 Solectria Renewables Warranty Coverage:

Solectria Renewables Limited Warranties are provided by Solectria Renewables, LLC. (“Solectria Renewables”) and cover defects in workmanship and materials. Solectria Renewables’ price for the products is based on inclusion of these limited warranty provisions and disclaimers. In the event of a conflict between the terms of this Limited Warranty and any terms and conditions proposed by purchasers of Solectria Renewables’ products, these Limited Warranty provisions shall govern the parties’ obligations with respect to warranty coverage for defective products.

Product Description

PVI 1800, PVI 2500

PVI 3000S, PVI 4000S, PVI

5000S, PVI 5300, PVI 6500,

PVI 7500

PVI 3800TL, PVI 5200TL,

PVI 6600TL, PVI 7600TL

PVI 10KW, PVI 13KW, PVI

15KW

PVI 14TL, PVI 20TL,

PVI 23TL, PVI 28TL PVI 50KW, PVI 60KW, PVI 75KW, PVI 85KW,

PVI 100KW

SGI 225, SGI 250, SGI 266,

SGI 300, SGI 500,

SGI 500PE, SGI 500XT

Standard

Limited Warranty

5 years

(60 months)

10 years

(120 months)

10 years

(120 months)

5 years

(60 months)

10 years

(120 months)

5 years

(60 months)

5 years

(60 months)

Extended

Limited Warranty

Not Available Not Available

Up to additional

10 years available

Up to additional

15 years available

Up to additional

10 years available

Up to additional

15 years available

Up to additional

15 years available

Parts Only

Limited Warranty

Not Available

Up to additional

15 years available

Not Available

Up to additional

15 years available

Up to additional

15 years available

1.1.3 Warranty start date: Solectria Renewables warranty begins on the date of shipment to the end user, or no later than 4 months from the date of shipment by Solectria Renewables.

1.1.4 Duration of Solectria Renewables Extended Warranty Period:

If a warranty extension has been purchased, the term is defined as an extension beyond the initial Standard Limited Warranty period.For example, if Standard Limited Warranty is 5 years and a 5 year extension is purchased, the term becomes 10 years (120 months) from date of shipment.

If Solectria Renewables repairs or replaces a product, its warranty continues for the remaining portion of the original Warranty Period or 90 days from the date of the repair of the inverter or replacement shipment to the customer, whichever is greater.

Solectria Renewables’ obligation to repair or replace a defective product under this warranty is contingent upon Solectria Renewables receiving full and timely payment for the warranted products and associated shipping charges. Solectria Renewables Warranty Coverage is voidable, at Solectria Renewables’ sole option, if full payment for products and associated shipping charges are not received in full and in a timely manner by Solectria Renewables. Please contact Solectria Renewables Customer Service for further details on other products.

1.1.5 Standard or Extended Limited Warranty Coverage:

Solectria Renewables will, at its sole option, repair or replace the defective product feed of charge, provided that Solectria Renewables is notified of the product defect within the Warranty Period for the product, and provided that Solectria Renewables, through inspection, establishes the existence of such a defect and that it is covered by the Limited Warranty.

Solectria Renewables will, at its sole option, use new and/or reconditioned parts in performing warranty repair and/or replacements. Solectria Renewables reserves the right to use parts or products of original or improved design in the repair or replacement of the product. All replaced products and all parts removed from repaired products become the property of Solectria Renewables.

Solectria Renewables will attempt to repair the unit within a reasonable time period. No provision will be made for reimbursement of lost energy production.

1.1.6 Parts Only Limited Warranty Coverage:

The parts only warranty includes parts needed to provide repairs to the product. Solectria Renewables will, at its sole option, use new and/or reconditioned parts in performing warranty repair and/or replacements. Solectria Renewables reserves the right to use parts or products of original or improved design in the repair or replacement of the product. All replaced products and all parts removed from repaired products become the property of Solectria Renewables.

All labor, travel, expenses and shipping are excluded from this warranty and an estimate must be paid prior to dispatching a technician.

1.1.7 For three-phase inverters 10kW and higher:

Within the Continental United States and Canada: Solectria Renewables warranty covers parts, travel and labor necessary to repair the product and shipment of parts to and from the customer via a Solectria Renewables-selected non-expedited surface freight.

Outside of the Continental US: For Alaska, Hawaii and all other installation locations Solectria Renewables will supply necessary parts and labor as needed for warranty repairs; however, travel is not included. Solectria Renewables will only provide non-expedited freight shipping of parts. The warranty does not include customs fees, broker fees or other taxes that may be imposed by any government agency

1.1.8 For three-phase inverters PVI14TL, PVI20TL, PVI23TL PVI28TL and single-phase inverters 7.6kW and lower:

Solectria Renewables warranty covers replacement inverters or parts necessary to repair the product and shipments of parts or replacement inverters to and from the customer via a Solectria Renewables-selected non-expedited surface freight within the contiguous United States and Canada. For Alaska, Hawaii and all other installation locations Solectria Renewables will cover the cost of return shipment of product one way from the customer. The warranty does not include customs fees, broker fees or other taxes that may be imposed by any government agency.

2.0 Obtaining Service:

If your product requires troubleshooting or warranty service, contact the installer or place of purchase. If you are unable to contact the installer/place of purchase or they are unable to provide service, contact Solectria Renewables directly at the number listed on the website in the customer service section for your product.

Solectria Renewables may send personnel to a jobsite or contract authorized, trained service personnel to service/replace components.

Reimbursement for contracted services: Solectria Renewables will submit a purchase order to the designated service personnel before work is performed. This purchase order will cover time expected for the required service and most likely an allocation for travel time. There is a flat rate for inverter replacements.

Direct returns may be performed according to the Solectria Renewables Return Material Authorization Policy.

In any warranty claim, dated proof of purchase must accompany the product and the product must not have been disassembled or modified without prior written authorization by Solectria Renewables.

Proof of purchase may be in any one of the following forms:

- The dated purchase receipt from the original purchase of the product at point of sale to the end user, or

- The dated distributor or dealer/installer invoice or purchase receipt showing original equipment manufacturer (OEM) status, or

- The dated invoice or purchase receipt showing the product exchanged under warranty.

Solectria Renewables provides technical assistance Monday-Friday, 8:30am-7pm EST and on- call technical support is provided outside normal business hours.

2.1 What does the Solectria Renewables warranty not cover?

Solectria Renewables Limited Warranties do not cover normal wear and tear of the product or costs related to the removal, installation, or troubleshooting of the customer‘s electrical systems. These warranties do not apply to and Solectria Renewables will not be responsible for any defect in or damage to:

a) The product, if it has been misused, neglected, improperly installed, physically damaged

b) The product, if it has been subjected to fire, water, generalized corrosion, biological

or altered, either internally or externally, or damaged from improper use or use in an unsuitable environment;

infestations, acts of God or input voltage that creates operating conditions beyond the maximum or minimum limits listed in the Solectria Renewables product specifications including high input voltage from generators or lightning strikes;

c) The product, if repairs have been made to it other than by Solectria Renewables or its d) The product, if it is used as a component part of a product expressly warranted by e) The product, if its original identification (trademark, serial number) markings have been f) The product, if it has been damaged in shipping (unless approved in writing by Solectria g) The product, if damaged by customer connections or any items installed by customer or h) Any installation and operation beyond the scope covered by relevant safety regulations i) Third party monitoring equipment;

j) Failure to perform Preventative Maintenance may void the warranty.

3. 0 DISCLAIMER SOLECTRIA RENEWABLES LIMITED WARRANTIES ARE THE SOLE AND EXCLUSIVE WARRANTY PROVIDED BY SOLECTRIA RENEWABLES IN CONNECTION WITH YOUR SOLECTRIA RENEWABLES PRODUCT AND ARE, WHERE PERMITTED BY LAW, IN LIEU OF ALL OTHER WARRANTIES, CONDITIONS, GUARANTEES, REPRESENTATIONS, OBLIGATIONS AND LIABILITIES, EXPRESS OR IMPLIED, STATUTORY OR OTHERWISE IN CONNECTION WITH THE PRODUCT, HOWEVER ARISING (WHETHER BY CONTRACT, TORT, NEGLIGENCE, PRINCIPLES OF MANUFACTURER‘S LIABILITY, OPERATION OF LAW, CONDUCT, STATEMENT OR OTHERWISE), INCLUDING WITHOUT RESTRICTION ANY IMPLIED WARRANTY OF MERCHANTABILITY OR CONDITION OR QUALITY OF THE PRODUCT, ANY IMPLIED WARRRANTY OF FITNESS FOR A PARTICULAR PURPOSE, OR ANY IMPLIED WARRANTY OF DISTRIBUTOR OR DEALER/INSTALLER ABILITY, ALL OF WHICH ARE EXPRESSLY DISCLAIMED TO THE FULLEST EXTENT PERMITED BY LAW.

ANY IMPLIED WARRANTIES OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE, OR ANY IMPLIED WARRANTY OF DISTRIBUTOR OR DEALER / INSTALLER ABILITY, TO THE EXTENT REQUIRED UNDER APPLICABLE LAW TO APPLY TO THE PRODUCT, SHALL BE LIMITED IN DURATION TO THE PERIOD STIPULATED UNDER THIS LIMITED WARRANTY, TO THE FULLEST EXTENT PERMITTED BY LAW.

authorized, trained service personnel; another manufacturer; defaced, altered, or removed; Renewables); installation company including third party monitoring; (UL1741, NFPA 70, etc.);

IN NO EVENT WILL SOLECTRIA RENEWABLES, INCLUDING ITS SUPPLIERS, MANUFACTURERS, VENDORS, SUBCONTRACTORS, DISTRIBUTORS, DEALERS AND ANY OTHER AFFILIATES BE LIABLE FOR ANY SPECIAL, DIRECT, INDIRECT, INCIDENTAL OR CONSEQUENTIAL DAMAGES, LOSSES, COSTS OR EXPENSES HOWEVER ARISING WHETHER IN CONTRACT OR TORT INCLUDING WITHOUT RESTRICTION ANY ECONOMIC LOSSES OF ANY KIND, ANY LOSS OR DAMAGE TO PROPERTY, INCLUDING LOSS OF USE AND INTANGIBLE HARM OF ANY KIND, AND ANY PHYSICAL DAMAGE OR OTHER DAMAGE ARISING FROM OR AS A RESULT OF ANY USE, MISUSE OR ABUSE OF THE PRODUCT, OR THE INSTALLATION, INTEGRATION OR OPERATION OF THE PRODUCT, REGARDLESS OF WHETHER SUCH INSTALLATION, INTEGRATION OR OPERATION WAS PERFORMED PROPERLY OR IMPROPERLY.

Solectria Renewables neither assumes nor authorizes any other person to assume for it any other liability in connection with the repair or replacement of the Product.

Exclusions of the Policy: Installation and Operation Manual If your product is a consumer product, the applicable law may not permit exclusion of implied

warranties. To the extent permitted by the applicable law such warranties are limited to the duration of this Limited Warranty. Some jurisdictions do not allow any limitations on the duration of an implied warranty, or exclusions on implied warranties, or on the limitation or exclusion of incidental or consequential damages, so the above limitation(s) or exclusion(s) may not apply to you. This Limited Warranty gives you specific legal rights. You may have other rights, which may vary from state to state or province to province.

WITHOUT LIMITING THE GENERALITY OF THE FOREGOING, UNLESS SPECIFICALLY AGREED TO BY IT IN WRITING, SOLECTRIA RENEWABLES

(a) MAKES NO WARRANTY AS TO THE ACCURACY, SUFFICIENCY OR SUITABILITY

(b) ASSUMES NO RESPONSIBILITY OR LIABILITY FOR LOSSES, DAMAGES, COSTS

THE USE OF ANY SUCH INFORMATION WILL BE ENTIRELY AT THE USERS’ RISK.

WARNING: LIMITATIONS ON USE

Please refer to your product user manual for limitations on uses of the product. Specifically, please note that Solectria Renewables’ products are not intended for use in connection with life support systems and Solectria Renewables makes no warranty or representation in connection with any use of the product for such purposes.

4.0 Return Material Authorization Policy

Please review our Return Merchandise Authorization Policy below.

4.1 Obtaining a required, Return Material Authorization:

Before returning a product directly to Solectria Renewables you must obtain a Return Material Authorization (RMA) number and the correct factory “Ship To“ address. Products must also be shipped prepaid. Product shipments will be refused and returned at your expense if they are unauthorized, returned without an RMA number clearly marked on the outside of the shipping box, if they are shipped collect, or if they are shipped to the wrong location. Refer to the terms and conditions statement provided when the item was purchased for details Restocking fees may apply.

4.2 Information Solectria Renewables needs when you are obtaining service:

1) The model name and serial number of your product

2) The reason for return

OF ANY TECHNICAL OR OTHER INFORMATION PROVIDED IN MANUALS OR OTHER DOCUMENTATION PROVIDED BY IT IN CONNECTION WITH THE PRODUCT; AND

OR EXPENSES, WHETHER SPECIAL, DIRECT, INDIRECT, CONSEQUENTIAL OR INCIDENTAL, WHICH MIGHT ARISE OUT OF THE USE OF SUCH INFORMATION.

Preparing the product for shipping:

1) Package the unit safely, preferably using the original box and packing materials. Please

2) Include the following:

ensure that your product is shipped fully insured in the original packaging or equivalent. This warranty will not apply where the product is damaged due to improper packaging.

a. The RMA number supplied by Solectria Renewables clearly marked on the outside

of the box.

b. A return address to which the unit can be shipped. Post office boxes are not accep-

table.

c. A contact telephone number where you can be reached during work hours. d. A brief description of the problem.

Ship the unit prepaid to the address provided by your Solectria Renewables’ customer service representative.

Returning a product from outside of the USA or Canada:

In addition to the above, you MUST include return freight funds and are fully responsible for all documents, duties, tariffs, and deposits.

http://www.solren.com/products-and-services/grid-tied-solar-inverters/residential/pvi-3800-7600TL-solar-inverter

Solectria Renewables LLC

360 Merrimack Street Building 9, 2nd floor Lawrence, Massachusetts 01843 USA Tel: 978.683.9700 Fax: 978.683.9702

Sales/General Info: inverters@solectria.com Customer Support: service@solectria.com

Website: www.solectria.com

November 22, 2013

Solectria Renewables PVI 3800TL, PVI 7600TL, PVI 5200TL, PVI 6600TL Installation And Operation Manual

Specifications and Main Features

Frequently Asked Questions

User Manual