LiftMaster CSW24VDC CSW24VDC Installation Manual - Page 46

Step 8 Solar Panels, Solar Usage Guide

Page 46 highlights

APPENDIX STEP 8 SOLAR PANELS NOT PROVIDED. SEE ACCESSORIES. Solar Application requirements: • A minimum of two 10W solar panels in series (Model SOLPNL10W12V). • A maximum of six 10W solar panels (Model SOLPNL10W12V). • Battery Tray (Model K10-36183). • Solar Battery Harness (Model K94-37236). • Two 33AH batteries, the standard 7AH batteries cannot be used. • A heater cannot be used with a solar application. Disconnect the expansion board if it is not in use to improve performance. We recommend LiftMaster low power draw accessories to minimize power draw, refer to accessory page. Use the tables below to see performance trade-offs. NOTE: Input solar power is 24 Vdc at 60 watts maximum. The solar panel(s) must be located in an open area clear of obstructions and shading for the entire day. The gate operator is not supported in northern climates where temperatures reach below -4˚F. This is due to cold weather and a reduced number of hours of sunlight during the winter months. Cycle rate may vary from solar chart for areas that reach below 32˚F. Solar panels should be cleaned on a regular basis for best performance to ensure proper operation. SOLAR USAGE GUIDE The CSW24VDC has best in class solar performance due to highly efficient electronics that draw very little power while the gate is not in use (standby). Typical System Standby Battery Current Consumption (mA) 2.7 mA +1 mA +2.4 mA +11.1 mA +3.8 mA System Configuration Main control board draw with no remote controls programmed Low band radio receiver active (one or more wireless transmitters learned) High band radio active (MyQ device programmed) Expansion board Per loop detector (up to 3 loop detectors can be plugged into the expansion board) This low current draw drastically increases the number of days the operator can remain in standby. To determine your system's performance, reference the above table and determine how many milliamps (mA) your system will draw from the batteries. EXAMPLE 1: A system with only a main control board and one or more hand held remote controls programmed will draw 3.7 mA from the batteries while the system is in standby (2.7 mA + 1 mA = 3.7 mA). EXAMPLE 2: A system with only a main control board, one or more hand held remote controls programmed, and 20 mA of external accessories connected to the main control board's accessory power output will draw 23.7 mA from the batteries while the system is in standby (2.7 mA + 1 mA + 20 mA = 23.7 mA). EXAMPLE 3: A system with a main control board, expansion board, two loop detectors, and one or more hand held remote controls programmed will draw 18 mA from the batteries while the system is in standby (2.7 mA + 11.1 mA + 3.8 mA * 2 +1 = 18.6 mA). Operator performance with no sun or loss of AC power BATTERY CURRENT DRAW (mA) SYSTEM CONFIGURATION 2.7 main control board only 3.7 remote controls programmed 6.1 remote controls and MyQ programmed 14.8 remote controls and expansion board 18.6 remote controls, expansion board, and one loop detector 26.2 remote controls, expansion board, and three loop detectors 30 40 60 100 200 300 500 All numbers are estimates. Actual results may vary. DAYS OF STANDBY 7AH batteries 33AH batteries 133 180 97 180 59 180 24 105 19 84 14 60 12 52 9 39 6 26 4 16 2 8 1 5 1 3 45 GATE CYCLES ON BATTERY 7AH batteries 33AH batteries 147 877 147 877 147 877 146 876 146 876 146 876 146 876 146 876 146 875 145 874 144 871 143 868 140 862

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45
APPENDIX
STEP 8
SOLAR PANELS
NOT PROVIDED. SEE ACCESSORIES.
Solar Application requirements:
A minimum of two 10W solar panels in series (Model SOLPNL10W12V).
A maximum of six 10W solar panels (Model SOLPNL10W12V).
Battery Tray (Model K10-36183).
Solar Battery Harness (Model K94-37236).
Two 33AH batteries, the standard 7AH batteries cannot be used.
A heater cannot be used with a solar application.
Disconnect the expansion board if it is not in use to improve performance
.
We recommend LiftMaster low power draw accessories to minimize power
draw, refer to accessory page. Use the tables below to see performance trade-offs.
NOTE:
Input solar power is 24 Vdc at 60 watts maximum.
The solar panel(s) must be located in an open area clear of obstructions and shading for the entire day. The gate operator is not supported in northern
climates where temperatures reach below -4˚F. This is due to cold weather and a reduced number of hours of sunlight during the winter months. Cycle
rate may vary from solar chart for areas that reach below 32˚F. Solar panels should be cleaned on a regular basis for best performance to ensure
proper operation.
Typical System Standby Battery
Current Consumption (mA)
System Configuration
2.7 mA
Main control board draw with no remote controls programmed
+1 mA
Low band radio receiver active (one or more wireless transmitters learned)
+2.4 mA
High band radio active (MyQ device programmed)
+11.1 mA
Expansion board
+3.8 mA
Per loop detector (up to 3 loop detectors can be plugged into the expansion board)
This low current draw drastically increases the number of days the operator can remain in standby. To determine your system’s performance,
reference the above table and determine how many milliamps (mA) your system will draw from the batteries.
EXAMPLE 1:
A system with only a main control board and one or more hand held remote controls programmed will draw 3.7 mA from the batteries
while the system is in standby (2.7 mA + 1 mA = 3.7 mA).
EXAMPLE 2:
A system with only a main control board, one or more hand held remote controls programmed, and 20 mA of external accessories
connected to the main control board’s accessory power output will draw 23.7 mA from the batteries while the system is in standby
(2.7 mA + 1 mA + 20 mA = 23.7 mA).
EXAMPLE 3:
A system with a main control board, expansion board, two loop detectors, and one or more hand held remote controls programmed will
draw 18 mA from the batteries while the system is in standby (2.7 mA + 11.1 mA + 3.8 mA * 2 +1 = 18.6 mA).
Operator performance with no sun or loss of AC power
BATTERY
CURRENT
DRAW (mA)
SYSTEM CONFIGURATION
DAYS OF STANDBY
GATE CYCLES ON BATTERY
7AH batteries
33AH batteries
7AH batteries
33AH batteries
2.7
main control board only
133
180
147
877
3.7
remote controls programmed
97
180
147
877
6.1
remote controls and MyQ programmed
59
180
147
877
14.8
remote controls and expansion board
24
105
146
876
18.6
remote controls, expansion board, and one loop detector
19
84
146
876
26.2
remote controls, expansion board, and three loop detectors
14
60
146
876
30
12
52
146
876
40
9
39
146
876
60
6
26
146
875
100
4
16
145
874
200
2
8
144
871
300
1
5
143
868
500
1
3
140
862
SOLAR USAGE GUIDE
The CSW24VDC has best in class solar performance due to highly efficient electronics that draw very little power while the gate is not in use (standby).
All numbers are estimates. Actual results may vary.