Wagan 2007-2 User manual

3,000 Watt AC Inverter
ProLine ™
User’s Manual
Item No.
#2007-2 (12V)
#2007-4 (24V)
#2007-8 (48V)
ProLine™3,000 Watt
DC to AC Power Inverter

Thank you for purchasing the ProLine™3,000W Power Inverter by Wagan Tech®. With
minimal care and proper treatment it will provide years of reliable service. Carefully
read, understand and comply with all instructions before use. Keep this manual for future
reference.
ABOUT THE INVERTER
This power inverter converts direct current (DC) to alternating household current (AC). This
inverter operates from a DC power source only. The level of direct current allowed by this
inverter varies by model. Please refer to the chart below:
Item No. 2007-2 Item No. 2007-4 Item No. 2007-8
12V DC Input 24V DC Input 48V DC Input
This inverter easily powers TV, DVD players, microwave ovens, refrigerators, and small air
conditioners. It also operates at the highest efficiency (up to 90%) that results in longer run
times and extended battery life compared to other inverters with this level of power output.
This inverter has the highest surge capability in its class. Superior surge capability allows the
inverter to start most difficult motorized loads. Advanced circuitry runs cooler and is more
reliable than competing units.
GENERAL INSTRUCTIONS:
• Keep the inverter away from any direct heat source or combustible materials.
• Keep well ventilated—this device generates heat.
• Keep the inverter away from combustible fuel or battery gases.
• Do not continuously operate any equipment over 3,000 Watts.
• Do not attempt to connect the inverter to any other power source, including
any AC power source.
• Incorrect battery polarity will damage the inverter and void the warranty.
• Keep this inverter in a dry environment.
• Do not open the inverter; there are no user serviceable parts inside.
LOAD CONSIDERATIONS
When an appliance with a motor starts, it requires a momentary surge of power. This surge
of power is the “starting load” or “peak load”. Once started, the appliance requires less
power to continue to operate. This is known as the “continuous load”. It is important to know
starting loads and continuous loads of appliances that will be powered by the inverter.
Appliance power is rated in watts. This information is usually stamped or printed on most
appliances and equipment. In some cases, a tool will be rated in amperes. To convert
from amps to watts, multiply: AMPS × 115 (AC voltage) = WATTS. This formula yields an
approximation of the continuous wattage load of that appliance.
The startup load of an appliance is a major factor of whether this inverter can power it.
Startup load is momentary. With many appliances, it is approximately twice the continuous
load but some appliance startup loads can be as high as eight times the continuous load.
To determine if an appliance or tool will operate with this inverter, run a test. This inverter
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will automatically shut down in the event of an output overload, so there is no danger of
damaging either the inverter or the equipment.
This inverter may not properly operate some appliances with either speed control features
or dimmer controls. Some appliance GFCI power cords will not operate properly while
powered by this inverter. The only way to be sure of proper operation is to try it.
Safety Warning: the inverter output can be lethal. improper uSe of thiS
inverter may reSult in property damage, perSonal injury or loSS of life.
FRONT PANEL
The Front Panel contains the inverter’s ON/OFF Switch, Digital Indicators, direct wiring
High Current Terminals, Two AC Outlets and a Remote Switch Connector for connecting an
optional Remote Switch cable.
132
ON/OFF
Switch
Green LEDs
High Output
Terminals
Digital Display
Two 120V
AC Outlets
Remote
ON/OFF
Switch
Connection
Display
Selector
On/Off Switch
This switch turns the inverter on and off.
Digital Display, Function Button, and Green LEDs
The inverter is equipped with a digital display to monitor input DC volts, DC amps, AC output
watts and error codes. A Display Selector button allows the user to advance the display
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readout to the next readout. The lit/unlit status of two green LEDs show which function is being
shown on the Digital Display
The display and button are used to help diagnose problems if they occur.
Green LEDs Status (Shows Display Mode, = Lit, = Unlit)
LEFT LED RIGHT LED DISPLAY Mode
DC Input Voltage
DC Input Current (Amps)
AC Output Wattage (Kilowatts)
Diagnostic Codes (E01, E02, E03, E04)
Volts Readout – Digital Display (left LED unlit, right LED Lit)
The volts display is the measurement of the voltage at the DC terminals of the inverter, not
actual battery voltage. During high wattage applications the display may show a lower
voltage level than the battery because of a voltage drop that can occur between the DC
input cables and the battery. This voltage drop should not be greater than 0.25 to 0.5
volts, as a greater voltage will seriously reduce run time. This inverter will operate with the
following input voltage range, varying by model:
#2007-2 —10V-15V DC Input
#2007-4 — 20V-30V DC Input
#2007-8 — 40V-60V DC Input
The inverter is equipped with an alarm and shut down feature based on these changes in
input voltage:
Feature: #2007-2 (12V) #2007-4 (24V) #2007-8 (48V)
Alarm sounds when input
voltage drops below: 10.5V ± 0.5V DC 21.0V ± 1.0V DC 42.0V ± 2.0V DC
Inverter shuts down when
input voltage drops below: 10.0V ± 0.5V DC 20.0V ± 1.0V DC 40.0V ± 2.0V DC
Inverter shuts down when
input voltage rises above: >15.0V DC >30.0V DC >60.0V DC
During charging from a generator, solar panel or AC powered charger the battery voltage
will be higher than when it is resting. Voltages greater than allowed may cause damage to
the inverter. Damage caused by excessive voltage input is not covered under the warranty.
Amps Readout – Digital Display (left LED lit, right LED unlit)
This readout indicates actual DC amperes of current being drawn from the battery bank.
Note that for a 120 amp reading the inverter should be powering 1,200 watts of AC load.
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Watts Readout – Digital Display (both left LED and right LED lit)
The Watts readout shows AC watts delivered to the connected operating AC appliance
load.
Diagnostic Error Codes – Digital Display (both left LED and right LED unlit)
When diagnostic codes are selected for display, the user will see four “Error Codes”
designated as E01, E02, E03 and E04. These codes are associated with a reason for
inverter shut down. Their meanings are as follows:
E01 – Overload
E02 – Over Temperature
E03 – Low Battery
E04 – Over Voltage
High Output AC Terminals
There are three insulated terminals on the front panel of the inverter. These terminals are for
connecting 115 volt AC devices that require more than 15 amps to operate. Other uses are
for connection to distributed wiring that has multiple AC outlets. Any wiring that is directly
connected must be 10 gauge or larger. Facing the Front Panel, the terminals are:
Left Middle Right
Ground Neutral Hot or Live
Neutral and Ground are bonded inside the inverter to comply with the National Electric Code
(NEC) requirement that any AC source must have a Neutral to Ground connection.
Two 115V AC Outlets
Each outlet will supply up to 15 amps 115V AC maximum, for powering appliances. Greater
than 1,650 watts continuous power from an outlet may cause damage to the inverter and
cause possible injury. Use the high output terminals for appliance loads greater than 15
amps.
Remote On/OFF Switch Connection
A supplied cable and Remote Switch assembly provides a convenient remote On/Off
feature.
Power Inverter Output Waveform
This inverter’s AC output is a modified sine wave (MSW) 115 volts AC. The comparison of
modified sine wave and household AC is shown in the figure below.
This modified sine wave has a root mean square (RMS) voltage of 115 volts. Most ordinary
AC voltmeters are calibrated to read “average” voltage and assume that the AC waveform
will be a pure sine wave. These meters will not correctly read MSW voltage, and will display
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about 20 to 30 volts too low. Any multi-meter identified as “TRUE RMS” will accurately read
MSW correctly.
Modified Sine Wave (MSW) Pure Sine Wave
REAR PANEL
High-Speed
Cooling Fans
Negative (−) DC
Input Terminal
Positive (+) DC
Input Terminal
Ground
Terminal
High-Speed Cooling Fans
Two high-speed fans keep the internal temperature of the inverter within operating limits.
Negative DC (−) Input and Positive DC (+) Input Terminals
DC input terminals are used to connect the inverter to heavy duty cables from the battery or
battery bank. For connection information, refer to the sections on installation.
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Ground Terminal
This connection is located on the lower left of the rear panel. It is for attaching a 6 gauge
insulated safety ground wire. This safety wire is for protecting personnel if there is an
unlikely failure in either the cabling or enclosure insulation. Do not directly connect this
ground connection to the negative DC terminal. This safety wire is to be connected to the
vehicle frame or earth ground. This is described in the installation procedure.
PLANNING THE INVERTER SYSTEM
Any large wattage inverter system requires planning before installation. There are several
steps to the planning process so the user must determine the following:
• Maximum inverter wattage required
• Operating time (run time) needed between battery recharges
• Battery bank capacity in amp-hours
• Charger requirement to charge batteries within a practical time.
• Distance between battery bank and inverter.
DETERMINING MAXIMUM APPLIANCE WATTAGE
Maximum AC appliance wattage is the first factor in planning battery and charging systems.
Some background: Large microwave oven specifications list cooking power (watts) and
appliance power. Appliance power is the AC load the inverter has to supply.
Most other electrical tools, appliances and audio/video equipment have labels that list the
unit’s power requirements in watts. If the tool or device is rated in amps, multiply the amps
by 115 (115V AC) to determine the watts. For example, a power tool rated at 4 amps will
draw 460 watts.
Determine the wattage of each appliance you need to simultaneously operate. Add all of
the appliance wattages to obtain an estimated “total watts” number. Remember to consider
the startup surge that motorized appliances will cause. Do not exceed the surge rating of this
inverter (6000 watts). This can cause immediate an overload shutdown.
At 3,000 watts continuous output, this inverter requires a DC power supply (battery bank)
that can continuously supply the following level of amps for the duration of the run time:
#2007-2 (12V DC Input) —300 amps @ 12V
#2007-4 (24V DC Input) — 150 amps @ 24V
#2007-8 (48V DC Input) — 75 amps @ 48V
CONFIGURING THE BATTERY BANK
To determine the minimum battery ampere-hour rating that you will need to operate
appliances from the inverter, and any DC appliances powered by the battery bank. Follow
these steps:
(The following calculations are specific to 12V systems. For 24V or 48V systems, a different
calculation is required but the same principles should apply)
1. List the maximum continuous wattage that the inverter has to supply.
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2. Estimate the number of hours the appliances will be in use between battery recharges.
This will vary depending on appliances. For example, a typical home use coffeemaker
draws 500 watts during its brew time of 5 minutes. It maintains the temperature of
the pot, requiring 100 watts. Typical use of a microwave oven is only for a few
minutes. Some longer operating time appliances are lamps, TVs, computers and
refrigerator/freezers.
3. Determine the total watt-hours of energy needed. This is done by multiplying average
power consumption in watts by hours of run time. For example: 1,500 watts for 10
hours = 15,000 watt hours.
4. To get an estimate of the maximum current (in amps) that a battery bank must be
capable of delivering to the inverter, divide the load watts by ten (for 12V battery). For
example a 1,500 watt appliance load will need 150 amps at 12 volts DC.
5. Using the 1,500 watts (or 150 Amps) for 10 hours example as above, then 150 amps
is needed for 10 hours. This provides us with the basic amp-hours (AH) of battery that
is required. Ten hours at 150 amps equals 1500 amp-hours (AH). This answer is just a
beginning because there are additional factors that determine actual run time. These
include:
• AC appliance load and time in use (basic AH)
• Cable gauge and length (cable losses)
• Charge level of the batteries (between use, chargers have to be able to fully
charge the batteries)
• Temperature of the batteries (colder batteries provide fewer amps)
• Age and condition of the batteries (older batteries lose AH capacity)
• Compliance with turning off unnecessary AC loads.
• Use of DC appliances and compliance with turning off unnecessary
DC loads.
DERATING THE BATTERY BANK
Most lead-acid batteries have a rating expressed in amp-hours (AH). The most common
rating of AH is “at the 20 hour rate”.
NOTE: Despite several Internet explanations, there is no relationship between Cold Cranking
Amps (CCA) and Ampere Hours (AH).
For example; if a 20AH battery is discharged at a 1 amp rate, is will take 20 hours to
discharge that battery. The terms “charged” and “discharged” relate to actual battery
voltage. This means that the output voltage of a nominal 12 volt battery starts at 13.2 volts
(fully charged) then drops to 10.6 volts (discharged). If the load on the battery causes
the battery to discharge faster than the 20 hour rate, the capacity (AH) of the battery is
measurably reduced (derated). Derating is a major run time factor. The curve in the following
chart can help to determine what the battery bank can deliver under load. The results are
used to estimate how much additional battery capacity is needed to achieve the desired run
time.
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The left vertical numbers of the curve represents percentage of the battery capacity at the
20 hour rate. In this example, the user needs a one hour run time. If the example battery is
220AH (20 hour rate), and the load is 220 amps that is 100 percent (horizontal number)
of the AH (20 hour rate). Starting at the 100 percent horizontal point and looking up to
the curve the results are that only 56 the percent of the battery capacity is available. This
means that a higher battery capacity is required to get the desired run time, one hour. The
curve also shows that a load of 200 percent of the 20 hour rate yields only 31 percent of
the battery capacity. The installer must carefully plan the capacity of battery bank or the run
time may be seriously affected. To the inexperienced installer, several trial battery capacities
may be required to make sure the large enough battery capacity is available to achieve the
desired run time.
The curve can be applied to any lead acid battery under load providing that it has an AH
rating at the 20 hour rate.
Continuing with the previous example: The 150 amp load will need to run for 10 hours, so
we begin configuration with a 1,500 AH battery. If the vertical is 1,500 and the horizontal
is 150 amps, the percentage of load on the battery is 10 percent. The curve shows that the
1,500 AH is derated to 90 % of maximum. This means that the battery will have to be 1,650
AH for the full 10 hour run time. It is important to add some extra battery capacity, because
as the batteries age, they will lose AH capacity.
CONFIGURATING THE BATTERY BANK
Twelve volt, 220 AH batteries were selected for these illustrations because they are generally
readily available and relatively inexpensive. They are deep-cycle type and with regular
recharging they have a relatively long life. These batteries are “flooded” type; they freely
vent hydrogen and oxygen while under charging and heavy discharge. They must be vented
to outside air to prevent accumulation of explosive gases.
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BATTERY BANK DIAGRAM
The diagrams below show inverter connections to a battery bank with recommended fuse
protection.
Safety Ground
#2007-2
12V
220Ah
++
––
12V
220Ah
+
–
12V
220Ah
+
–
INVERTER
Fuse
12V DC Input
Safety Ground
#2007-4
12V
220Ah
+
+
–
–12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
INVERTER
Fuse
24V DC Input
Safety Ground
48V DC Input
12V
220Ah
+
+
–
–
12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
12V
220Ah
+
–
#2007-8
INVERTER
Fuse
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FUSING REQUIREMENTS
NOTE: It is important that this 3,000 watt inverter has the correct main battery fuse added
to the Positive (+) battery cable as close as possible to the battery bank’s positive terminal.
Refer to this chart for correct size:
#2007-2 (12V DC INPUT) #2007-4 (24V DC INPUT) #2007-8 (48V DC INPUT)
ANL 400 amp fuse ANL 200 amp fuse ANL 100 amp fuse
The fuse amperage rating must be sized to allow simultaneous operation of all the AC
appliances to be powered, allowing for the momentary high startup current requirements
of inductive loads. Use the recommended fuse block (fuse holder) and fuse, or an
electrical equivalent. ANL type fuses and fuse holders are readily available from marine
supply dealers.
The battery protection fuse is very important to protect equipment, batteries and personnel.
The fuses protect against battery explosion if the cables that connect to the inverter
accidentally short.
WARNING!
exploding batterieS can Spray molten lead, hot Sulfuric acid and other metal and plaStic
fragmentS. batterieS that are charging or under high diScharge rateS produce exploSive
hydrogen gaS into the Surrounding area. beSafe—fuSe the battery bank and make Sure
the batterieS are properly ventilated.
DC Cable Gauge
Minimize cable losses by using the thickest wire available, and the shortest practical length.
If the inverter and the battery are positioned within four feet of each other, the following
guages of insulated copper wire should be used to make the connections. If the round trip
distance is longer than 4 feet, heavier wire will be required.
Refer to “Appendix A” at the rear of this manual for suggested cable gauge.
CONNECTING THE INVERTER
General information
Loose connections will result in a severe voltage drop that can cause damage to connectors,
conductors, and insulation and can cause sparking. Make sure all cables are the proper
gauge and plan to have the ANL fuse holder within one foot of the battery bank’s Positive
(+) terminal. All cable ends need to be stripped of insulation for approximately ¾ of an inch
to have appropriate sized ring terminals crimped onto the bare cable ends. Appropriately
sized socket wrenches should be used to carefully tighten the retaining nuts on the terminals
of the battery bank, fuse holder and DC terminals on the back panel of the inverter.
CAUTION: Reverse polarity connection will blow the fuses in the inverter and can
permanently damage the inverter. Damage caused by reversed polarity will void
the warranty.
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Procedure
1. Connect the Negative (−) cable ring terminal to the Negative (−) Battery Terminal.
2. Install the ANL fuse in the Fuse holder Positive (+) cable.
3. Make sure the ON/OFF switch located on the front panel of the inverter is in the OFF
position. Disconnect any remote switch from the connector on the front panel.
4. Locate the Ground Lug Terminal at the rear of the inverter. Connect an insulated 6
gauge copper wire to the terminal. The other end of the ground wire is connected to
a “proper” grounding point. Use the shortest practical length of wire. Connect this
wire to the chassis of your vehicle or to the grounding system in your boat. In a city,
the ground wire can connect to a metal cold water pipe that goes underground. In
remote locations, the ground wire can be connected to an “earth ground”. This can be
an attachment to a 6 foot long copper clad metal rod driven into the ground. In the
unlikely event of a short circuit, operating the inverter without proper grounding can
result in electrical shock. Do not directly connect this ground wire to the Negative DC
Terminal. You can connect the ground wire to the negative battery terminal.
NOTE: The cable ends need to be stripped of insulation for approximately ¾ of an inch
at both ends. The battery ends or fuse end needs to have ring terminals crimped onto
the bare cable ends.
5. Use a socket wrench to loosen and remove the Positive (+) and Negative (−) cable
connector retaining nuts. Place the Negative (−) cable ring terminal onto the Negative
(−) DC terminal. Place the retaining nut on the terminal stud. Use the socket wrench to
make a good, secure connection.
6. Recheck and make sure the DC cable fuse is installed in the fuse holder.
7. Attach the Positive (+) DC cable to the Positive (+) terminal on the battery. Avoid
shorting the socket wrench and carefully tighten the retaining nut.
CAUTION: Making an initial connection between the positive cable and the inverter’s
positive terminal may cause a spark. This is a normal and is a result of capacitors in
the inverter starting to charge. Because of the possibility of sparking, it is extremely
important that both the inverter and the battery bank be positioned away from any
source of flammable fumes or gases. Failure to heed this warning can result in fire
or explosion. Do not make the positive terminal connection immediately after the
batteries have been charging. Allow time for the battery gasses to vent to outside air.
8. Attach the positive cable ring terminal to the Positive (+) DC connector stud on the
inverter. Replace the retaining nut and carefully tighten. Make sure the connection is
tight and secure.
9. Turn on the inverter. Advance the Digital Display to the Voltage display (right green
LED lit) by pressing the FUNCTION button. The display on the front panel should show
the following amounts:
#2007-2 (12V DC) —10.5V-13.2V DC Input
#2007-4 (24V DC) — 21.0V-26.4V DC Input
#2007-8 (48V DC) — 42.0V-52.8V DC Input
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10. When the voltage reading does not fall within this range, check the connections of
the wires to the terminals on the battery bank and the inverter to make sure they are
secure. Also check the voltage of the power source. Advance the Digital Display to the
Diagnostic Error Codes (green LEDs not lit). Look for code E03: Low Voltage Shutdown.
If this code is present, then check for loose connections of discharge batteries.
11. Turn off the inverter. The audible alarm may sound a short “chirp”. This is also normal.
12. When you have confirmed that the appliance to be operated is turned off, plug the
appliance into one of the two AC outlets on the front panel of the inverter.
13. Turn the inverter on.
14. Turn the appliance on.
15. The Remote On/Off switch should be placed in a location convenient to the user.
Insert the cable plug into the front panel connector. The inverter’s Front Panel On/Off
Switch must be On for the Remote Switch to operate. A lit LED indicator on the Remote
Switch indicates when DC power is applied to the inverter. Pressing the momentary
button controls On/Off operation of the inverter.
Note: If an extension cord is used from the inverter to the appliance, limit the extension
cord length to 50 feet or less. Make sure that the cord is properly rated to carry the
appliance load.
CHARGING THE BATTERY BANK
It is not the purpose of this Inverter User’s Guide to provide detailed information regarding
battery charging systems. However, the user should try to augment any charging system with
either wind power or solar power. These can continue to operate during power outages and
they also reduce recharge time. If automatic AC powered battery chargers do not provide
enough charging current for a larger battery bank, it is permissible to have two automatic
battery chargers connected to the battery bank.
REGULAR LOSS OF COMMERCIAL POWER
If the inverter system is used during commercial power outages that occur daily, configure
the charger system to replace energy during the time that commercial power is available.
Replacement of battery energy always requires more than was taken from the battery
(typically 130 percent). In the example used earlier in this document, the AC load ran for 10
hours. If commercial power is available, there are approximately 14 hours left in the day to
do the recharging. The following is an example of what is necessary to recharge a battery
bank that has 1,650 AH of capacity (as in the example above) and has been discharged to
10.5 volts (discharged). The charger has to replace 2,145 AH (1650 x 1.3 AH) in 14 hours,
so the charger must charge at a rate of 153 amps for 14 hours. As this charge current is
distributed among the batteries in the battery bank, the current received by an individual
battery is within its charge rating. Be sure that the battery is well vented as the area will
likely have accumulations of an explosive mixture of hydrogen and oxygen. Follow all
recommendations for use that are contained in the battery charger manual.
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WARNING
THERE IS DANGER OF AN EXPLOSION. DO NOT CONNECT OR DISCONNECT
CHARGER CABLES DIRECTLY AFTER BATTERY DISCHARGE OR RECHARGE—
MAKE SURE THAT THE BATTERY BANK AREA IS WELL VENTED BEFORE
ATTACHING OR REMOVING CABLES.
If flooded lead acid batteries are used, as examples given in this document, be sure that
periodic checks of battery electrolyte levels are done. Follow battery manufacturer’s
instructions in keeping the electrolytes at the proper level. Be sure to use pure distilled water
when replacing evaporated electrolyte liquid.
ABOARD A VESSEL OR VEHICLE
Manufacturer supplied engine driven alternators can usually be replaced with one that can
continuously deliver higher amperage. This should be done at the outset. Keep the batteries
charging when the vessel or vehicle engine is operating. In the case of a vessel, make sure
that shore power is used to recharge the batteries whenever possible.
OPERATING ISSUES
Television and Audio Suggestions
Although all inverters are shielded and filtered to minimize signal interference, some
interference with your television picture may be unavoidable, especially with weak signals.
However, here are some suggestions that may improve reception.
• First, make sure that the television antenna produces a clear signal under normal
operating conditions (i.e. at home plugged into a standard 11O/120V AC wall outlet).
Also ensure that the antenna cable is properly shielded and of good quality.
• Change the positions of the inverter, antenna cables and television power cord.
• Isolate the television, its power cord and antenna cables from the 12 volt power
source by running an extension cord from the inverter to the television set.
• Coil the television power cord or install a clamp-on ferrite choke (available from
electronic parts suppliers).
Note: Some inexpensive audio systems may have a slight “buzzing” sound when operated
with the inverter. This is caused by insufficient filtering in the audio system. The only solution
to this problem is to get a sound system with a higher quality power supply.
TROUBLESHOOTING
PROBLEM: Low or no output voltage
Reason Solution
Poor contact with battery terminals. Clean terminals thoroughly.
Using incorrect type of voltmeter to test
output voltage. Use true RMS reading meter.
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PROBLEM: Inverter shutdown
Reason Solution
Battery voltage below rated value. (Code
E03) Recharge or replace battery.
Equipment being operated draws too much
power. (Codes E01 or E02 or E03) Use a higher capacity inverter or do not use this equipment.
Inverter is too hot: thermal shutdown. (Code
E02) Allow inverter to cool.
Check for adequate ventilation.
Reduce the load on the inverter to rated
continuous power output.
Unit may be defective. See warranty and call customer service.
PROBLEM: TV interference
Reason Solution
Electrical interference from the inverter. Add a ferrite data line filter on to the TV
power cord.
PROBLEM: Low battery alarm on all the time (Code E03)
Reason Solution
Battery voltage below rated value. Increase input voltage to maintain regulation.
Poor or weak battery condition. Recharge or replace battery.
Inadequate power being delivered to the
inverter or excessive voltage drop. Use lower gauge wire.
Keep wire length as short as possible.
PROBLEM: TV does not work
Reason Solution
TV does not turn on. Contact TV manufacture to see if the TV is
compatible with a modified sine wave.
SPECIFICATIONS
Name Description
Input #2007-2 — 12V DC Input
#2007-4 — 24V DC Input
#2007-8 — 48V DC Input
Output 120V AC ± 10%
Frequency 60 Hz
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User’s Manual—Read before using this equipment
14
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Name Description
Output Waveform Modified Sine Waveform
TrueRated Power™3,000 watts continuous
Surge Power 6,000 watts
Efficiency Approximately 90%
No load
Switch ON
Switch OFF
<3.0A DC
<0.2mA DC
Low Battery Alarm #2007-2 — 10.5V ± 0.5V DC
#2007-4 — 21.0V ± 1.0V DC
#2007-8 — 42.0V ± 2.0V DC
Low Battery Shutdown #2007-2 — 10.0V ± 0.5V DC
#2007-4 — 20.0V ± 1.0V DC
#2007-8 — 40.0V ± 2.0V DC
Over Temp Shutdown 140ºF ± 9ºF (60ºC ± 5ºC)
AC output sockets 2 US standard
Power switch DC input ON/OFF control
Dimensions (L × W × H) 12.8 × 7.2 × 6.8 inches (325 × 182 × 173 mm)
Net Weight 11.7 lbs (5.3 Kg) approximately
NOTE
All specifications are typical at nominal line, half load, and 77ºF (25°C) unless otherwise
noted. Specifications are subject to change without notice.
DISPOSAL OF INVERTER
Electronic products are known to contain materials that are toxic if improperly disposed.
Contact local authorities for disposal and recycling information.
APPENDIX A: CABLE GAUGE GUIDE
Cable recommendations are for full 3,000 watt output.
Cable Round Trip
Length (feet)
4 5 6 7 8 9 10
Gauge (AWG) #2007-2 2 0 0 00 00 000 000
#2007-4 4 2 2 0 0 00 00
#2007-8 6 4 4 2 2 0 00
ProLine™3,000W Power Inverter by Wagan Tech®
15 www.wagan.com

WAGAN Corp. Limited Warranty
The WAGAN Corporation warranty is limited to products sold only in
the United States.
Warranty Duration:
Product is warranted to the original purchaser for a period of one (1) year from the
original purchase date, to be free of defects in material and workmanship. WAGAN
Corporation disclaims any liability for consequential damages. In no event will
WAGAN Corporation be responsible for any amount of damages beyond the amount
paid for the product at retail.
Warranty Performance:
During the warranty period, a product with a defect will be replaced with a
comparable model when the product is returned to WAGAN Corporation with an
original store receipt. WAGAN Corporation will, at its discretion, replace or repair
the defective part. The replacement product will be warranted for the balance of the
original warranty period. This warranty does not extend to any units which have been
used in violation of written instructions furnished.
Warranty Disclaimers:
This warranty is in lieu of all warranties expressed or implied and no representative
or person is authorized to assume any other liability in connection with the sale of our
products. There shall be no claims for defects or failure of performance or product
failure under any theory of tort, contract or commercial law including,but not limited
to negligence, gross negligence, strict liability, breach of warranty, and breach of
contract.
Returns:
WAGAN Corporation is not responsible for any item(s) returned without an official
Return Authorization number (RA#). Please contact our customer service team by
phone or email to obtain an RA#. You can also visit our website and chat with our team
during our normal business hours. For more details and instructions on how to process
a warranty claim, please read the “Returns” section under the “Contact” page on our
website. WAGAN Corporation is not responsible for any shipping charges incurred in
returning the item(s) back to the company for repair or replacement.
Register your product online at http://tinyurl.com/wagan-registration to be added to
our email list. You will receive previews on our upcoming products, promotions, and
events.
©2015

31088 San Clemente Street
Hayward, CA 94544, U.S.A.
Tel: + 1.510.471.9221
U.S. & Canada Toll Free: 1.800.231.5806
[e-mail]
www.wagan.com
©2013 Wagan Corporation. All Rights Reserved
Wagan Tech and wagan.com are trademarks used by Wagan Corporation
REV20130805-E