Samlexpower SAM-2000-12 Le manuel du propriétaire

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Le manuel du propriétaire

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SAM Series
Power
Inverters
SAM-1000-12
SAM-1500-12
SAM-2000-12
SAM-3000-12
Please read this
manual BEFORE
installing your
inverter
Owner's
Manual
2 | SAMLEX AMERICA INC.
MANUAL | Index
SECTION 1:
Important Safety Instructions ................................................................. 1
SECTION 2:
Description .......................................................................................... 3
Features ............................................................................................. 3
Principle of Operation ............................................................................ 4
SECTION 3:
Product Layout ...................................................................................... 6
SECTION 4:
Installation ............................................................................................. 7
SECTION 5:
Operation ........................................................................................... 18
SECTION 6:
Protections, Monitoring & Trouble-shooting ........................................ 20
SECTION 7
Specications ....................................................................................... 24
SECTION 8
Warranty ........................................................................................... 26
Disclaimer of Liability
UNLESS SPECIFICALLY AGREED TO IN WRITING, SAMLEX AMERICA, INC.:
1. MAKES NO WARRANTY AS TO THE ACCURACY, SUFFICIENCY OR SUITABILITY OF ANY TECHNICAL OR OTHER INFORMATION
PROVIDED IN ITS MANUALS OR OTHER DOCUMENTATION.
2. ASSUMES NO RESPONSIBILITY OR LIABILITY FOR LOSSES, DAMAGES, COSTS OR EXPENSES, WHETHER SPECIAL, DIRECT, INDI-
RECT, CONSEQUENTIAL OR INCIDENTAL, WHICH MIGHT ARISE OUT OF THE USE OF SUCH INFORMATION. THE USE OF ANY
SUCH INFORMATION WILL BE ENTIRELY AT THE USERS RISK.
Samlex America reserves the right to revise this document and to periodically make changes to the content
hereof without obligation or organization of such revisions or changes.
Copyright Notice/Notice of Copyright
Copyright © 2016 by Samlex America, Inc. All rights reserved. Permission to copy, distribute and /or modify this
document is prohibited without express written permission by Samlex America, Inc.
2 | SAMLEX AMERICA INC. SAMLEX AMERICA INC. | 1
SECTION 1 | Safety
IMPORTANT SAFETY INSTRUCTIONS
This manual contains important information regarding safety, operation, maintenance
and storage of this product. Before use, read and understand all cautions, warnings, in-
structions and product labels, plus your vehicle’s battery manufacturer’s guidelines. Failure
to do so could result in injury and / or property damage. The following safety symbols will
be used in this manual to highlight safety and information:
Warning!
Indicates possibility of physical harm to the user in case of non-compliance.
!
Caution!
Indicates possibility of damage to the equipment in case of non-compliance
i
Info
Indicates useful supplemental information.
Warning!
To reduce the risk of re, electric shock, explosion or injury
1. Do not connect in parallel with another AC source e.g. Utility AC Distribution Wiring /
generator. This is NOT a Grid Tied Inverter!
2. Disconnect appliance plug from outlet strip or turn off the inverter before working on the
appliance. Multiple Outlet Power Strips with switches and circuit breakers only interrupt
power to the “Hot” receptacle terminals.
3. Precautions when working with batteries
• BatteriescontainverycorrosivedilutedSulphuricAcidaselectrolyte.Precautionsshouldbe
taken to prevent contact with skin, eyes or clothing.
• BatteriesgenerateHydrogenandOxygenduringchargingresultinginevolutionofexplosive
gasmixture.Careshouldbetakentoventilatethebatteryareaandfollowthebatterymanu-
facturer’s recommendations.
• Neversmokeorallowasparkoramenearthebatteries.
• Usecautiontoreducetheriskofdroppingametaltoolonthebattery.Itcouldsparkorshort
circuitthebatteryorotherelectricalpartsandcouldcauseanexplosion.
• Removemetalitemslikerings,braceletsandwatcheswhenworkingwithbatteriesandalso
use caution when working with metal tools. Batteries can produce a short circuit current
high enough to melt / weld metals and thus, cause severe burn.
• Ifyouneedtoremoveabattery,alwaysremovethegroundterminalfromthebatteryrst.
Make sure that all the accessories are off so that you do not cause a spark.
4. Do not make any electrical connections or disconnections in areas designated as
IGNITION PROTECTED. This includes 12VDC Power Plug (Cigarette Plug) connections and
terminal connections.
5. This is not a toy - keep away from children.
6. Do NOT insert object into the air vents.
2 | SAMLEX AMERICA INC.
!
Caution!
1. The metal chassis of the inverter and the Grounding Terminal of the NEMA5-15R outlet(s)
are internally bonded (connected) to the Negative DC Input Terminal on the inverter. In a
vehicle / boat, the Negative Terminal of the battery is bonded to vehicle chassis / boat’s hull.
Hence, the metal chassis of the inverter and the AC loads will be automatically grounded
(bonded to the vehicle chassis / boat’s hull).
2. Please ensure that the Negative DC Input Terminal on the inverter or the Battery Negative
Terminal on the battery itself is bonded to Earth Ground WHEN THE INVERTER IS USED ON
LAND.
3. The Line and Neutral Terminals of the NEMA5-15R AC outlets are isolated from its Ground-
ing Terminal. Thus, the metal chassis of the AC loads and the metal chassis of the inverter
will also be isolated from the Line and Neutral slots of the AC outlets. The Grounding
Terminal of the AC outlet is connected to the input section of the Electronic Ground Fault
Protection Circuit on the Power Circuit Board. Due to the above implementation, the volt-
age on the Neutral and Line Terminals of the AC outlet with respect to the chassis of the
inverter / chassis of the AC loads will be pulsing DC voltage with average DC value of up to
50V (will read 75 VAC on AC scale of the Voltmeter because of pulsing nature of DC volt-
age). DO NOT TOUCH THE NEUTRAL TERMINAL / NEUTRAL CONDUCTORS!
4. Do not connect to AC distribution wiring where the Neutral is bonded to Ground. The
inverter will see this as abnormal condition of Ground Fault and will shut down.
5. Do not use with Positive Grounded Electrical Systems (the majority of modern automobiles,
RVs, trucks and boats use Negative Grounded Electrical Systems).
6. Observe correct polarity when connecting the DC input terminals of the inverter to the
battery. Connect Positive of the battery to the Positive input connector of the inverter and
the Negative of the battery to the Negative input terminal of the inverter. Reverse polarity
connection will result in a blown fuse and may cause permanent damage to the inverter.
Damage due to reverse polarity is not covered under warranty.
7. Thisinverterwillnotoperatehighwattageappliancesthatexceedtheoutputpowerlimit
or the surge power limit.
8. Do not operate this inverter if it is wet.
9. Do not install in engine compartment – please install in a well-ventilated area.
10. This inverter is not tested for use with medical devices.
SECTION 1 | Safety
2 | SAMLEX AMERICA INC. SAMLEX AMERICA INC. | 3
i
Info For additional technical and operational information on inverters, battery
chargersandrelatedtopics,pleaserefertowww.samlexamerica.comunder"Support"
andview"ApplicationNotes"and/or"WhitePapers"section.
Description
The inverter converts 12 VDC voltage from battery or from other suitable 12 VDC source
to115V,60HzACvoltage.ThewaveformoftheoftheACoutputvoltageisModied
Sine Wave.
Features
• Highpeakefciencyof90%
• Veryhighpowertoweightratio-compactandlightweight
• SoftStartTechnologyforbettersurgeperformance
• Loadcontrolledcoolingfanforbetterefciency
• CoolSurfaceTechnologyforcoolerandsafertouchtemperature
• UniversalProtectioncircuitforlow/highDCinputvoltage,overload/shortcircuit,
over temperature and Ground Fault
• LowInterferenceTechnologyforcontrolledRFnoise
Soft Start Technology
This feature offers the following advantages:
• WhentheinverterisswitchedON,thevoltagerampsupto115VACinaround2sec.Ifthe
load was already ON at the time of switching ON of the inverter, starting surge current
demanded by certain reactive devices like motors etc. will be reduced and there will be less
likelihood of the inverter shutting down due to overload.
• IftheinverterisswitchedONrstandthenaloadwithhigherstarting/inrushcurrentlike
SMPS / motor is switched ON, the voltage will dip momentarily and will ramp up and reduce
inrush / starting surge current in the load as above
• Similaroverloadreductionwillbeinitiatedduringanyothermomentaryoverloadcondition
Low Interference Technology
InnovativecircuitdesignandnoiseltrationcircuitryreduceRFinterferenceinTVpicture,
audio and radio equipment
Cool Surface Technology
Normally, heat dissipating components are mounted directly on internal metal chassis
surface of the inverter and hence, the chassis surface may rise to unsafe touch-tempera-
ture. In this inverter, heat-dissipating components are not mounted directly on the chassis
of the unit but on PCB (Printed Circuit Board) mounted heat sink and, there is air gap
between the heat sink and the chassis surface. The heat sink is cooled by load-controlled
fan. As there is no direct contact between the heat sink and the chassis, the chassis surface
remains much cooler and is safer to touch.
SECTION 2 | Description, Features &
Principle of Operation
SECTION 1 | Safety
4 | SAMLEX AMERICA INC.
SECTION 2 | Description, Features &
Principle of Operation
Load Controlled Cooling Fan
Cooling is carried out by convection and by forced air circulation by load-controlled fan.
The fan will normally be OFF and will be switched ON automatically at the following
loads:
SAM-1000-12 28 to 32 Watts
SAM-1500-12, SAM-2000-12 & SAM-3000-12 90 to 110 Watts
Thiswillreduceenergyconsumptionbythefanandwillincreaseoverallefciency
Principle of Operation
Conversion of 12 VDC from the battery / other DC source to 115 VAC takes place in 2
stages.Intherststage,the12VDCisconvertedtohighvoltageDC(around160VDC)
using high frequency switching and Pulse Width Modulation (PWM) technique. In the
2ndstage,the160VhighvoltageDCisconvertedto115V,60HzModiedSineWaveAC.
(Note:115VistheRMSvalueoftheModiedSineWaveACvoltage.Thepeakvalueof
theModiedSineWaveACvoltagewillbeequaltothevalueoftheabovehighvoltage
of around 160V. See the Fig 2.1 below)
Modied Sine Waveform -
Characteristics & Comparison with Pure Sine Waveform
PleaserefertoFig2.1belowwhichshowsonecycleofModiedSineWaveandPureSine
Wave for comparison.
TIME
180
160
140
120
100
80
60
40
20
0
20
40
60
80
100
120
140
160
180
Modified Sine
Wave sits at
0V for some
time and then
rises or falls
Sine Wave
Modified Sine Wave
Pure Sine Wave
crosses 0V
instantaneously
Legend
V +
V -
115 RMS
Fig 2.1 Modied Sine Wave and Pure Sine Wave - Comparison
4 | SAMLEX AMERICA INC. SAMLEX AMERICA INC. | 5
SECTION 2 | Description, Features &
Principle of Operation
SECTION 2 | Description, Features &
Principle of Operation
TheoutputwaveformoftheinverterisaModiedSineWave.InaModiedSineWave,
thevoltagewaveformconsistsofrectangularpulsesthatapproximatesinewavepulses
of a Pure Sine Wave. The voltage rises and falls abruptly at a particular phase angle and
sits at 0 Volts for some time before changing its polarity. In a Pure Sine Wave, the voltage
rises and falls smoothly with respect to phase angle and the voltage changes its polarity
instantly when it crosses 0 Volts.
!
Caution!
Certain devices (few examples given below) may malfunction when powered from Modi-
ed Sine Wave. Check with the manufacturer of the device for suitability of powering
with Modied Sine Wave:
• Devicesutilizingzerovoltagecrossingfortimingcontrol:Someclocksusedin
consumer electronic items (will not keep accurate time)
• DevicesusingmodulationofRFsignalsonAClinesduringzerocrossing
e.g. X-10 System for Home Automation
• DevicesutilizingTriacbasedphasecontrolfortransformerlessvoltagestep
down e.g.:
• Smallbatterychargersforhandtools,ashlights,night-lights,shaversetc.
• Variablemotorspeedcontrolinhandtools
• Lightdimmers
• Temperaturecontrollerse.g.TemperatureControlledElectricBlankets
• Devicesusinghighcapacitancebasedvoltagemultipliersforgeneratinghigh
voltage (will create very high surge currents) e.g.:
• PhotographicStrobeLights
• LaserPrinters
Measuring Modied Sine-Wave Voltage with a “True Rms” Voltmeter
Asmentionedabove,ModiedSineWavevoltageisatypeofsquarewavethathasanRMS
(Root Mean Square) value of 115 VAC in this inverter. A general-purpose AC voltmeter is
calibratedtoaccuratelymeasuretheRMSvalueofaPureSineWaveandNOTofaModied
SineWave.Ifthisgeneral-purposevoltmeterisusedtomeasureModiedSineWavevolt-
age, it will indicate a lower value (96 VAC to 104 VAC). For accurately measuring the voltage
ofaModiedSineWave,useavoltmeterwhichisdesignedtomeasure“TrueRMSValues”
like Fluke 87, Fluke 8060A, Fluke 77 / 99, Beckman 4410 etc.
6 | SAMLEX AMERICA INC.
7
8
9
1
2
2 3
1
2
3
7
6
2
4
1
3
Fig. 3.1 – SAM-1000-12
Fig 3.3 – SAM-2000-12, SAM-3000-12
Fig. 3.2 – SAM-1500-12
5
6
5
8
5
6
1011
9
1011
9
1011
8
7
6
SECTION 3 | Layout
1. ON/OFF Switch
2. NEMA5-15R AC Outlet
3. Modular Jack for Remote Control
SAM-RC (Optional)
4. 15A Circuit Breaker
5. YELLOWLED-"InputFault"
6. GREENLED-"Power"
7. REDLED-"Fault"
8. Cooling Air Intake Slots
9. Opening for Fan Air Discharge
10. Positive Battery Input Terminal
(with cover)
11. Negative Battery Input Terminal
(with cover)
LEGEND
6 | SAMLEX AMERICA INC. SAMLEX AMERICA INC. | 7
SECTION 4 | InstallationSECTION 3 | Layout
Typical Installation Diagram
Safety of Installation
Please read safety instructions on pages 1-2 before commencing installation.
Installation Environment
Forbestoperatingresults,theinvertershouldbeplacedonatsurface,suchastheground,
caroor,orothersolidsurface.Thepowercordallowseasypositioningoftheinverter.The
inverter should only be used in locations that meet the following criteria:
Dry- Do not allow water and/or other liquids to come into contact with the power inverter. In
all marine applications, do not install the inverter below or near the waterline and keep the
inverter away from moisture or water.
If Flooded / Wet Cell Type of battery is being used, ensure that it is not installed very close to
the battery to avoid contact with acid / acid vapors
Cool - Ambient air temperature should be between 0°C (32°F) to 25°C (77°F) for full rated
power. At higher temperature of 26°C (79°F) to 35°C (95°F), the output power should be
de-ratedto80%.Donotplacetheinverteronornearaheatingventoranypieceofequip-
ment, which is generating heat above room temperature. Keep the inverter away from direct
sunlight.
Ventilated - The unit is cooled by load-controlled fan. The fan will be off up to certain thresh-
old of power and automatically switch on thereafter. The fan sucks cool air in from the venti-
lation slots on the AC outlet side and discharges hot air out of the fan opening (9) on the DC
+
12V Battery
+
Fuse
Vehicle Ground
or Earth Ground
BACK OF INVERTER
FRONT OF INVERTER
AC Load
Remote Control
SAM-RC (optional)
Fig 4.0. Typical Installation Diagram (front & back)
8 | SAMLEX AMERICA INC.
SECTION 4 | Installation
Input Terminal side. Keep the areas surrounding the inverter clear by at least 10 cm to ensure
free air circulation around the unit. Ensure that the ventilation slots and fan opening on the
sides are not blocked. Do not place items on or over the inverter during operation.
Mounting Orientation
Two(2)angesonthebottomwith2mountingslotseachareprovidedformounting.
If the inverter is required to be mounted on a vertical surface like a wall, please ensure that
thefanaxisishorizontalasshowninFig4.1(a).
TheDCinputsidehaslargerventilationopenings(9)forfanairow.Mountingwiththefan
side facing up or down as shown in Figs 4.1(b) or 4.1(c) is NOT permitted due to safety consid-
erations. If mounted as in Fig 4.1(b), metallic or other conductive object(s) may accidentally fall
inside the unit through the fan ventilation openings, and create hazardous condition resulting
from short circuit of internal high voltage section(s). If mounted as in Fig 4.1(c), hot / molten
material from damaged internal portion of the unit due to malfunction may fall on combus-
tiblematerialontheoorandmaycreaterehazard.
Remote Control Model SAM-RC (optional)
An optional wired Remote Control Model SAM-RC is available. It comes with 3M, RJ-45 cable. It can
be used to Switch ON and switch OFF the inverter and also displays the operational status of the
inverter using colored LEDs. Plug the Remote Control Modular Plug into the Modular Jack
(3 - Fig 3.1, 3.2, 3.3). See typical installation diagram at Fig 4.0, page 7. Refer to separate Owner's
Manual provided with the Remote for further details of the remote's operation.
DC Side Connections
See typical installation diagram at Fig 4.0, page 7.
General Information
1. The metal chassis of the inverter and the Grounding Terminal of the NEMA5-15R outlet(s)
are internally bonded (connected) to the Negative DC Input Terminal on the inverter. In a
vehicle / boat, the Negative Terminal of the battery is bonded to vehicle chassis / boat’s hull.
Hence, the metal chassis of the inverter and the AC loads will be automatically grounded
(bonded to the vehicle chassis / boat’s hull).
2. Please ensure that the Negative DC Input Terminal on the inverter or the Battery Negative
Terminal on the battery itself is bonded to Earth Ground WHEN THE INVERTER IS USED ON
LAND.
(a) (c)(b)
Fig 4.1
Mounting Orientation
on Wall
8 | SAMLEX AMERICA INC. SAMLEX AMERICA INC. | 9
SECTION 4 | Installation
3. Do not use with Positive Grounded Electrical Systems (the majority of modern automobiles,
RVs, trucks and boats use Negative Grounded Electrical Systems).
4. Observe correct polarity when connecting the DC input terminals of the inverter to the
battery. Connect Positive of the battery to the Positive input connector of the inverter and
the Negative of the battery to the Negative input terminal of the inverter. Reverse polarity
connection will result in a blown fuse and may cause permanent damage to the inverter.
Damage due to reverse polarity is not covered under warranty.
Requirements of DC Input Power Source
Approx. DC Input Current required by Inverter = Power consumed by the AC Load in
Watts ÷ 10.
DC input currents at Continuous Rated Power Output are shown (Table 4.1 below):
Table 4.1 DC Input Current
Model Rated Input Current
SAM-1000-12 100A
SAM-1500-12 150A
SAM-2000-12 200A
SAM-3000-12 300A
12VDC input to the inverter should be fed from a 12V Battery System or from a 12.5VDC
to 15VDC Regulated DC Power Supply. If a DC Power Supply is used, its output current ca-
pacityshouldbemorethan2timesthemaximumDCinputcurrentdrawnbytheinverter.
Further explanation of operation is based on DC input power from a 12V battery. It is
recommended that Deep Cycle Type Batteries are used. For detailed technical information
ontypes,construction,specications,sizing,connectionsandcharging/dischargingof
Lead Acid Batteries, please read online White Paper titled “Batteries, Chargers and
Alternators” at www.samlexamerica.com under Support/White Papers.
Connecting Batteries
Series Connection
Fig. 4.2 Series Connection
6V Battery 6V Battery
12V Battery 12V Battery 12V Battery 12V Battery
6V Battery 6V Battery 6V Battery 6V Battery
12V String 1 12V String 2
Battery 1 Battery 3Battery 2 Battery 4
Battery 1 Battery 3Battery 2
Battery 4 Battery 3
Battery 4
12V
Inverter/
Charger
12V
Inverter/
Charger
Cable “A
Cable “B”
Cable “A
Cable “B”
Cable “A
Cable “B”
6V Battery
Battery 2
6V Battery
Battery 1
24V
Inverter/
Charger
10 | SAMLEX AMERICA INC.
When two or more batteries are connected in series, their voltages add up but their Ah
capacity remains the same. Fig. 4.2 above shows 4 pieces of 6V, 200 Ah batteries connect-
ed in series to form a battery bank of 24V with a capacity of 200 Ah. The Positive terminal
of Battery 4 becomes the Positive terminal of the 24V bank. The Negative terminal of
Battery 4 is connected to the Positive terminal of Battery 3. The Negative terminal of
Battery 3 is connected to the Positive terminal of Battery 2. The Negative terminal of
Battery 2 is connected to the Positive terminal of Battery 1. The Negative terminal of
Battery 1 becomes the Negative terminal of the 24V battery bank.
Parallel Connection
Fig. 4.3 Parallel Connection
When two or more batteries are connected in parallel, their voltage remains the same but
their Ah capacities add up. Fig. 4.3 above shows 4 pieces of 12V, 100 AH batteries con-
nected in parallel to form a battery bank of 12V with a capacity of 400 Ah.
The four Positive terminals of Batteries 1 to 4 are paralleled (connected together) and this
common Positive connection becomes the Positive terminal of the 12V bank. Similarly, the
four Negative terminals of Batteries 1 to 4 are paralleled (connected together) and this
common Negative connection becomes the Negative terminal of the 12V battery bank.
Series – Parallel Connection
Fig. 4.4 Series-Parallel Connection
SECTION 4 | Installation
6V Battery 6V Battery
12V Battery 12V Battery 12V Battery 12V Battery
6V Battery 6V Battery 6V Battery 6V Battery
12V String 1 12V String 2
Battery 1 Battery 3Battery 2 Battery 4
Battery 1 Battery 3Battery 2
Battery 4 Battery 3
Battery 4
12V
Inverter/
Charger
12V
Inverter/
Charger
Cable “A
Cable “B”
Cable “A
Cable “B”
Cable “A
Cable “B”
6V Battery
Battery 2
6V Battery
Battery 1
24V
Inverter/
Charger
6V Battery 6V Battery
12V Battery 12V Battery 12V Battery 12V Battery
6V Battery 6V Battery 6V Battery 6V Battery
12V String 1 12V String 2
Battery 1 Battery 3Battery 2 Battery 4
Battery 1 Battery 3Battery 2
Battery 4 Battery 3
Battery 4
12V
Inverter/
Charger
12V
Inverter/
Charger
Cable “A
Cable “B”
Cable “A
Cable “B”
Cable “A
Cable “B”
6V Battery
Battery 2
6V Battery
Battery 1
24V
Inverter/
Charger
10 | SAMLEX AMERICA INC. SAMLEX AMERICA INC. | 11
Figure 4.4 above shows a series – parallel connection consisting of four 6V, 200 Ah batteries
to form a 12V, 400 Ah battery bank. Two 6V, 200 Ah batteries, Batteries 1 and 2 are con-
nected in series to form a 12V, 200 Ah battery (String 1). Similarly, two 6V, 200 Ah batteries,
Batteries 3 and 4 are connected in series to form a 12V, 200 Ah battery (String 2). These two
12V, 200 Ah Strings 1 and 2 are connected in parallel to form a 12V, 400 Ah bank.
!
Caution!
When 2 or more batteries / battery strings are connected in parallel and are then connected
to an Inverter Charger (See Figs. 4.3 and 4.4 given above), attention should be paid to the
manner in which the Inverter Charger is connected to the battery bank. Please ensure that
if the Positive output cable of the Inverter Charger (Cable “A”) is connected to the Positive
batterypostoftherstbattery(Battery1inFig.4.3)ortothePositivebatterypostofthe
rstbatterystring(Battery1ofString1inFig.4.4),thentheNegativeoutputcableofthe
Inverter Charger (Cable “B”) should be connected to the Negative battery post of the last
battery (Battery 4 as in Fig. 4.3) or to the Negative Post of the last battery string (Battery 4 of
Battery String 2 as in Fig. 4.4). This connection ensures the following:
• Theresistancesoftheinterconnectingcableswillbebalanced.
• Alltheindividualbatteries/batterystringswillseethesameseriesresistance.
• Alltheindividualbatterieswillchargeatthesamechargingcurrentandthus,willbe
charged to the same state at the same time.
• Noneofthebatterieswillseeanoverchargecondition.
If the Positive output cable of the Inverter Charger (Cable “A”) is connected to the Positive
batterypostoftherstbattery(Battery1inFig.4.3)ortothePositivebatterypostofthe
rstbatterystring(Battery1ofString1inFig.4.4),andtheNegativeoutputcableofthe
InverterCharger(Cable“B”)isconnectedtotheNegativebatterypostoftherstbattery
(Battery1asinFig.4.3)ortotheNegativePostoftherstbatterystring(Battery1ofBattery
String 1 as in Fig. 4.4), the following abnormal conditions will result:
• Theresistancesoftheconnectingcableswillnotbebalanced.
• Theindividualbatterieswillseedifferentseriesresistances.
• Alltheindividualbatterieswillbechargedatdifferentchargingcurrentandthus,
will reach fully charged state at different times.
• Thebatterywithlowerseriesresistancewilltakeshortertimetochargeas
compared to the battery which sees higher series resistance and hence, will
experienceovercharginganditslifewillbereduced.
Sizing Inverter Battery Bank
The following basic rules are used to determine the size of the battery bank:
• ActivePowerinWatts(W)=
VoltageinVolts(V)xCurrentinAmperes(A)xPowerFactor ...................... Formula 1
• Foraninverterrunningfroma12Vbatterysystem,
the DC current required from the 12V batteries is the
AC power delivered by the inverter to the load in Watts (W)
divided by 10 ..................................................................................................... Formula 2
• Energyrequiredfromthebattery=
DCcurrenttobedelivered(A)xtimeinHours(H) ........................................ Formula 3
• AsaRuleofThumb,Ahcapacityofthebatteriesrequired=
2xEnergyrequiredfromthebattery ............................................................. Formula 4
SECTION 4 | Installation
12 | SAMLEX AMERICA INC.
Anexampleofthiscalculationfora12Vinverterisgivenbelow:
Let us say that the total continuous AC Watts delivered by the 12V inverter = 1500W.
Then,usingFormula2above,theDCcurrenttobedeliveredbythe12Vbatteries=
1500W÷10=150Amperes.
Next, the energy required by the load in Ampere Hours (Ah) is determined:
Forexample,iftheloadistooperatefor3Hours,thenasperFormula3above,theenergy
tobedeliveredbythe12Vbatteries=150Amperes×3Hours=450AmpereHours(Ah).
Finally, as per Rule of Thumb at Formula 4, the Ah capacity of the batteries should be
twice the energy required by the load in Ah=450Ahx2=900Ah.
DC Input Power Terminals
Custom made DC input terminals using M9 Nut / Bolt arrangement have been provided
for connecting DC input cables (10, 11 in Fig 3.1 to 3.3). The terminals are protected by
plastic covers.
Important Wiring/Cabling Information
Although wires and cables are good conductors of electric current, they do have some
resistance, which is directly proportional to the length and inversely proportional to the
thickness(diameter)i.e.resistanceincreasesinthinnerandlongerwires.Currentowing
through resistance produces heat. Cables and wires are covered with insulating material
thatcanwithstandaspeciedtemperatureoftheconductorunderspeciedconditions.
Toensurethattheinsulationisnotdamagedduetoexcessiveoverheating,eachwiresize
hasamaximumallowablecurrentcarryingcapacitycalled"Ampacity"whichisspecied
byNECTable31.15(B)(17).Further,NECalsospeciesthatwiresizeshouldbebasedon
Ampacity-1.25timestheratedcurrentow.
Resistance of wires and cables produces another undesirable effect of voltage drop. Volt-
agedropisdirectlyproportionaltotheresistanceandthevalueofcurrentow.Voltage
dropproduceslossofpowerintheformofheat.Inaddition,excessivevoltagedropfrom
the battery to the inverter may prematurely shut down the inverter due to activation of
the Low Input Voltage Protection Circuitry of the inverter (10.5 ± 0.3V). DC cables should
besizedtoensuremaximumvoltagedropislimitedtolessthan5%.
Effects of low voltage on common electrical loads are given below:
Lighting Circuits – Incandescent and Quartz/Halogen: Loss in light output because the
bulbnotonlyreceiveslesspower,butthecoolerlamentdropsfromwhite-hottowards
red-hot, emitting much less visible light.
Lighting Circuits – Fluorescent: Voltage drop causes an early proportional drop in
light output.
AC Induction Motors: These are commonly found in power tools, appliances, etc. They
exhibitveryhighsurgedemandswhenstarting.Signicantvoltagedropinthesecircuits
may cause failure to start and possible motor damage.
SECTION 4 | Installation
12 | SAMLEX AMERICA INC. SAMLEX AMERICA INC. | 13
Requirement of Fuse in Battery Connection
A battery is a very large source of current. If there is a short circuit along the length of
the cables that connect the battery to the inverter, thousands of Amperes of current can
owfromthebatterytothepointofshortingandthatsectionofthecablewilloverheat,
theinsulationwillmeltandislikelytocausere.Topreventoccurrenceofhazardous
conditionsundershortcircuit,fusewithAmpererating≥themaximumcontinuouscur-
rent drawn by the inverter but ≤ the Ampacity of the connecting cable should be used
in the battery connection. The fuse should be fast acting Class-T or Marine Rated Battery
Fuse Type MRBF. Rating of fuse is shown in Table 4.2 below. The fuse should be installed
as close to the Battery Positive terminal as possible, preferably within 7”. Please note that
this fuse is required to protect the cable run from the battery to the inverter against short
circuit. The inverter has its own internal DC side fuse(s) for internal DC side protection.
Making DC Side Connections
Recommended cable and fuse sizes for connecting battery are given in Table 4.2. The
maximumcurrentforcablesizing/fuseratinghasbeenconsideredat1.25timesrated
continuous current draw at the rated output power.
Table 4.2 Recommended Cable and Fuse Sizes for Battery Connection
Model No.
Rated
DC Input
Current
Cable Size
1
(Ampacity)
Max
Fuse
Size
2
Distance between
Inverter,
Battery and % Voltage
Drop
3
Samlex
Fuse
(Optional)
Samlex
Cable +
Fuse Kit
(Optional)3 ft. 6 ft. 10 ft.
SAM-1000-12 100A AWG#4
(160A)
100 to
150A
1.2% 2.4% 4.0% DC-FA-100 DC-1000-KIT
SAM-1500-12 150A AWG#2
(215A)
200A 1.2% 2.3% 3.8% DC-FA-200 DC-2000-KIT
SAM-2000-12 200A AWG#2/0
(329A)
300A 0.8% 1.5% 2.5% DC-FA-300 DC-2500-KIT
SAM-3000-12 300A AWG#4/0
(446A)
400A 0.7% 1.4% 2.4% CFB2-400 DC-3500-KIT
NOTES:
1. Cable Size
• AsperNEC,sizeisbasedonAmpacity≥1.25timestheratedDCInputCurrent
• Conductor/Insulationrating:105°C
2. Fuse Size
• Type:Class-TorMarineRatedBatteryFuse(MRBF)
• TheratingofthefuseshouldnotexceedtheAmpacityoftheCable
3. Distance between Inverter and Battery and % Voltage Drop
• Voltagedropiscalculatedbasedonlengthofcable=2xDistancetoconsidertotallengthofPositive
and Negative cables
• %dropiscalculatedwithrespecttoratedbatteryvoltageof12.5V
SECTION 4 | Installation
14 | SAMLEX AMERICA INC.
!
Caution!
• PleaseensurethattherecommendedexternalfusespeciedinTable4.2above
(Fuse is not supplied) is installed in series with the Positive cable and is as close to
the Battery (+) terminal as possible (preferably within 7”).
• Pleaseensurethatalltheconnectionsaretight.Looseconnectionsmaycause
overheated wires and melted insulation.
AC Side Connections
See typical installation diagram at Fig 4.0, page 7.
General Information
1. The metal chassis of the inverter and the Grounding Terminal of the NEMA5-15R outlet(s)
are internally bonded (connected) to the Negative DC Input Terminal on the inverter. In a
vehicle / boat, the Negative Terminal of the battery is bonded to vehiclchassis / boat’s hull.
Hence, the metal chassis of the inverter and the AC loads will be automatically grounded
(bonded to the vehicle chassis / boat’s hull).
2. The Line and Neutral Terminals of the NEMA5-15R AC outlets are isolated from its Ground-
ing Terminal. Thus, the metal chassis of the AC loads and the metal chassis of the inverter
will also be isolated from the Line and Neutral. The Grounding Terminal of the AC outlet
is connected to the input section of the Electronic Ground Fault Protection Circuit on the
Power Circuit Board. Due to the above implementation, the voltage on the Neutral and Line
Terminals of the AC outlet with respect to the chassis of the inverter / chassis of the AC loads
will be pulsing DC voltage with average DC value of up to 50V (will read 75 VAC on AC scale
of the Voltmeter because of pulsing nature of DC voltage). DO NOT TOUCH THE NEUTRAL
TERMINAL / NEUTRAL CONDUCTORS!
Connecting AC Loads
AC output of the inverter is fed through NEMA5-15R outlets. Details are given in the Table 4.3
below:
TABLE 4.3 Details AC Output Connections
Model No.
Rated Output
Power
1
of
the Inverter
Rated Output
Current
(Rated Output
Power ÷ 115VAC)
NEMA5-15R
2
Outlet
(2, Figs 3.1, 3.2)
NEMA5-15R
2
outlet
(2, Fig 3.2) each
with 15A Breaker
(4, Fig 3.2)
SAM-1000-12 1000 VA
1
8.7A 2 -
SAM-1500-12 1500VA
1
13.0A 2 -
SAM-2000-12 2000VA
3
17.4A
3
- 3
SAM-3000-12 3000VA
3
26.0A
3
- 3
SECTION 4 | Installation
14 | SAMLEX AMERICA INC. SAMLEX AMERICA INC. | 15
SECTION 4 | Installation
NOTES FOR TABLE 4.3
1. PowershownintheTableaboveistheApparentPowerinVoltAmps(VA).ActivePowerinWatts=Ap-
parentPowerinVAxPowerFactoroftheACload.ForresistivetypeofACloads,thePowerFactoris1
andforthesetypesofloads,ApparentPowerin“VA”=ActivePowerin“Watts”.Powerratingsshownin
theSpecicationsonpage24areapplicableforResistiveLoadandhence,Watts=VA
2. EachNEMA5-15Routletisratedatmaximumcurrentcapacityof15Aandpowerof1725VAat115VAC
3. CAUTION! For SAM-2000-12 and SAM-3000-12, the full rated power cannot be drawn from 1 NEMA5-15R
outlet as each outlet is rated for only 15A (1725VA) and is protected by 15A breaker. If a single load rated
at > 1725VA is required to be powered, output from 2 NEMA5-15 outlets should be paralleled and then
fed to this load. If a load > 1725VA / 15A is powered from a single breaker protected NEMA5-15R outlet,
its 15A breaker will trip (pops out) and will have to be reset manually (pushed in).
!
Caution!
1. DO NOT connect to AC distribution wiring where the Neutral is bonded to Ground.
The inverter will see this as abnormal condition of Ground Fault and will shut down.
2. The AC output from this inverter should NOT be connected in parallel with another
AC source like grid / generator / another inverter - SEVERE DAMAGE WILL OCCUR!
3. If the AC output from this inverter is required to be fed to an AC Distribution Panel /
SubPanelforbackupACpower,asuitableTransferSwitchlikeSamlexAmerica
Transfer Switch Model No. STS-30 should be used. The Transfer Switch will prevent
parallel operation of AC output of this inverter with the other AC source.
Sizing Chart for Typical Loads that Require High Starting Surge
Themanufacturers’specicationsforpowerratingofappliancesanddevicesindicateonly
theRunningPowerrequired.TheSurgePowerrequiredbysomespecictypesofdevices
asexplainedabovehastobedeterminedbyactualtestingorbycheckingwiththemanu-
facturer. This may not be possible in all cases and hence, can be guessed at best, based on
some general Rules of Thumb.
Table 4.4 lists some common loads that require high surge power on start up. A “Siz-
ing Factor” has been recommended against each which is a Multiplication Factor to be
applied to the rated running Watt rating of the load to arrive at the Continuous Power
Rating of the inverter (Multiply the running Watts of the device/ appliance by the Sizing
Factor to arrive at the size of the inverter).
16 | SAMLEX AMERICA INC.
TABLE 4.4: INVERTER SIZING FACTOR
Type of Device or Appliance Inverter Sizing Factor
1
Air Conditioner / Refrigerator / Freezer (Compressor based) 5
Air Compressor 4
Sump Pump / Well Pump / Submersible Pump 3
Dishwasher / Clothes Washer 3
Microwave (where rated output power is the cooking power) 2
Furnace Fan 3
Industrial Motor 3
Portable Kerosene / Diesel Fuel Heater 3
Circular Saw / Bench Grinder 3
Incandescent / Halogen / Quartz Lamps 3
Laser Printer / Other Devices using Quartz Lamps for heating 4
Photographic Strobe / Flash Lights
2
4
NOTES FOR TABLE 4.4
1. Multiply the Running Active Power Rating {Watts} of the appliance by this Factor to arrive at the Continu-
ous Power Rating of the inverter for powering this appliance.
2. For Photographic Strobe / Flash Unit, the surge power of the inverter should be > 4 times the Watt Sec
ratingofphotographicstrobe/ashunit.
Limiting Electro-Magnetic Interference (EMI)
This unit contains internal switching devices that generate conducted and radiated elec-
tromagnetic interference (EMI). The EMI is unintentional and cannot be entirely elimi-
nated. The magnitude of EMI is, however, limited by circuit design to acceptable levels to
provide reasonable protection against harmful interference. This unit can conduct and
radiate radio frequency energy and, if not installed and used in accordance with the in-
struction manual, may cause harmful interference to radio communications. The effects of
EMIwillalsodependuponanumberoffactorsexternaltotheunitlikeproximityofthe
unit to the EMI receptors, types and quality of connecting wires and cables etc. EMI due to
factorsexternaltotheunitmaybereducedasfollows:
- Ensurethattheunitisrmlygroundedtothegroundsystemofthebuildingor
the vehicle.
- Locate the unit as far away from the EMI receptors like radio, audio and video
devices as possible.
- Keep the DC side wires between the battery and the unit as short as possible.
- Do not keep the battery wires far apart. Keep them taped together to reduce their
inductance and induced voltages. This reduces ripple in the battery wires and improves
performanceandefciency.
SECTION 4 | Installation
16 | SAMLEX AMERICA INC. SAMLEX AMERICA INC. | 17
- ShieldtheDCsidewireswithmetalsheathing/copperfoil/braiding:-Usecoaxialshielded
cable for all antenna inputs (instead of 300 ohm twin leads) - Use high quality shielded
cables to attach audio and video devices to one another.
- Limit operation of other high power loads when operating audio/video equipment.
Buzzing Sound in Audio Systems
Someinexpensivesoundstereosystemsand“BoomBoxes”mayemitabuzzingsound
from their speakers when operated from this unit. This is likely to occur because the
powersupplyintheelectronicdevicedoesnotadequatelylterhigherfrequencyhar-
monicsgeneratedbyModiedSineWaveproducedbythisunit.Thesolutionistouse
higher quality sound system that incorporates higher quality of interference suppression
in its power supply.
SECTION 4 | Installation
18 | SAMLEX AMERICA INC.
Connecting Loads, Switching ON & Switching OFF
Connecting Loads
1. Make sure that single load or the combined load requirement of your equipment does
notexceedtheinverter'soutputrating.
2. Switch OFF the inverter.
3. Switch OFF the load.
4. Plug the cord(s) from the load(s) into the AC receptacle(s) of the inverter
5. Switch ON the inverter. Wait for a few seconds.
6. TheGREENLEDindicator"Power"(6,Fig3.1to3.3)willbelittoindicatethattheinverter
is operating normally.
7. Switch ON the load(s).
Switching ON
1. Switch OFF the load connected to the inverter. Avoid switching ON the inverter with load
in ON condition.
2. Switch ON the inverter, wait for a few seconds and then switch ON the load.
3. When using high capacitive loads with inadequate inrush current limiting like cheaper
quality of Compact Flourescent Lamps (CFL) etc., wait for 10 seconds before switching ON
such loads. If the inverter is switched ON with these types of loads in ON condition, the in-
verter may shut down or the loads may not switch ON. Sometimes, adding a small resisitive
load (like incandescent lamp) in parallel with such devices may prevent such shut down.
Switching OFF
1. Switch OFF the load connected to the inverter
2. SwitchOFFtheinverter.PleasenotethatonswitchingOFF,theGREENLED"Power"
(6,Fig.3.1,3.2,3.3)willextinguishslowly.
Remote Control Model SAM-RC (optional)
An optional wired Remote Control Model SAM-RC is available. It comes with 3M, RJ-45 cable. It
can be used to Switch ON and switch OFF the inverter and also displays the operational status of
the inverter using colored LEDs. Plug the Remote Control Modular Plug into the Modular Jack
(3 - Fig 3.1, 3.2, 3.3). See typical installation diagram at Fig 4.0, page 7. Refer to separate Owner's
Manual provided with the Remote for further details of the remote's operation.
!
Caution!
NOTE: For switching ON and switching OFF the inverter using optional Remote
Control SAM-RC, the main ON/OFF Switch on the inverter should be in OFF
position.
SECTION 5 | Operation
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Samlexpower SAM-2000-12 Le manuel du propriétaire

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