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- 4" Stainless Steel Commander Plus Series
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- 14 Pages
Flint & Walling 4" Stainless Steel Commander Plus Series Instructions 14 Pages
Flint & Walling 4" Stainless Steel Commander Plus Series Instructions
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OWNERS GUIDE TO
INSTALLATION AND OPERATION
4” — 35-85 GPM and
6” — 50-250 GPM
8” — 325-400 GPM
SUBMERSIBLE PUMPS
WARNING
IMPORTANT SAFETY INSTRUCTIONS
RULES FOR SAFE INSTALLATION AND OPERATION
1. Read these warnings and instructions carefully.
Failure to follow them could cause serious bodily injury and/or property damage.
2. Follow all local electrical and safety codes as well as the National Electrical Code (NEC) and the
Occupational Safety and Health Act (OSHA).
3. The power supply should be a separate circuit, independent of all other circuits. Be sure it is equipped with a fuse and disconnect box of ample capacity.
4. For fire protection, the power supply should be free of any building, preferably on a direct line from the transformer. In the event of fire, the wires will not be destroyed and the water supply not cut-off.
5. disconnect power source before performing any work on or near the motor or its connected load.
If the power disconnect point is out-of-sight, lock it in the open position and tag it to prevent unexpected application of power. Failure to do so could result in fatal electrical shock.
6. handle pump with wet hands or when standing in water as fatal electrical shock could occur.
Disconnect main power supply before handling pump for any reason.
7. Shut off power source when voltage drops 10% below the rated voltage of the motor.
8. Protect the power cable from coming in contact with sharp objects, oil, grease, hot surfaces or chemicals.
DO NOT kink the power cable. If damaged replace immediately.
9. leave the control box, fused disconnect switch, or covers open (either partially or completely) when not being worked on by a competent electrician or repairman.
10. Always use caution when operating electrical controls in damp areas. If possible, avoid all contact with electrical equipment during thunderstorms or extreme damp conditions.
11. Install all electrical equipment in protected area to prevent mechanical damage which could produce serious electrical shock and/or equipment failure.
12. Pump is designed to pump cold ground water that is free of air or gases. Decreased pump performance and life expectancy can occur if the ground water is not cold (86F/30C) or contains air or gases.
13. Pump and controls must be securely and adequately grounded as specified in section 250-43 item (A) of the U.S.A. National Electric Code (NEC) and Section
26-954 Canadian Electrical Code. Failure to do so could result in a fatal injury.
14. DO NOT use this pump to pump flammable liquids such as gasoline, fuel oil, kerosene, etc. Failure to follow the above warning could result in property damage and/or personal injury.
WARNING: The pump is intended for use in a well. Motor frame must be connected to power supply ground or fatal electrical shock may result. Do not use this pump in swimming pools.
NOTE: Pumps with the “CSA” mark are tested to UL standard UL778 and certified to CSA standard C22.2 No.
108.
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Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
130582 C
Typical Installation
Submersible
Cable
Riser
Pipe
Conduit
Control
Box
Pressure
Switch
Fuse Disconnect
Box
Pre-Charged
Pressure
Tank
Pressure
Relief
Valve Gate
Valve
Pitless
Adapter
Plastic or
Steel Pipe
Torque
Arrestor
Check
Valve
Pressure
Gauge
Drain
Valve
To
Service
To Drain
Single Phase Tank/Controls Installation
Check
Valve
Submersible
Pump
Magnetic
Starter
Fuse Disconnect
Box
Pre-Charged
Pressure
Tank
Pressure
Relief
Valve
Gate
Valve
Submersible
Motor
IL0092
Check
Valve
Pressure
Gauge
Drain
Valve
To
Service
To Drain
Three Phase Tank/Controls Installation
Figure 1 — Typical Installation with Pre-Charged Tank
Control
Box
Air Release and
Pressure Gauge
Fused
Switch
Box
Outlet to Service
Tank
Submersible Power
Cable to Pump
Snifter
90º Elbow
Well Seal
Pipe
Coupling
Power Cable
Taped to Pipe
Bleeder Orifice
Union
Check
Valve
Pressure
Switch
Relief Valve
Pipe
Check Valve Bleeder Valve
Rubber Orifice
Pitless Unit
Pipe
IL0093A
Figure 2 — Typical Installation with Standard Pneumatic Tank
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Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
CABLE SELECTION
Single Phase, 2-Wire or 3-Wire Cable, 60 Hz (Service Entrance to Motor)
Motor Rating
Volts
115
HP
1/3
1/2
1/3
1/2
3/4
1
1-1/2
14
130
100
550
400
300
250
190
12
210
160
880
650
480
400
310
10
340
250
1390
1020
760
630
480
8
540
390
2190
1610
1200
990
770
6
840
620
3400
2510
1870
1540
1200
4
Copper Wire Size
1300
960
5250
3880
2890
2380
1870
3
1610
1190
6520
4810
3580
2960
2320
2
1960
1460
7960
5880
4370
3610
2850
230 2
3
5
7-1/2
10
15
1 foot = .3048 meters
150
120*
0
0
0
0
250
190
0
0
0
0
390
300
180*
0
0
0
620
470
280
200*
0
0
970
750
450
310
250
170*
1530
1190
710
490
390
270*
1910
1490
890
610
490
340
2360
1850
1110
750
600
430
1
2390
1780
9690
7170
5330
4410
3500
2930
2320
1390
930
750
530
0
2910
2160
11770
8720
6470
5360
4280
3620
2890
1740
1140
930
660
00
3540
2630
7870
6520
5240
4480
3610
2170
1410
1160
820
000 0000
4210
3140
5060
3770
2680
1720
1430
1020
1760
1260
Three Phase, 3-Wire, 60 Hz, 200 and 230 Volts (Service Entrance to Motor)
Motor Rating
Volts HP
1/2
3/4
1
14 12 10 8 6 4 3
710 1140 1800 2840 4420
510
430
810
690
1280 2030 3160
1080 1710 2670 4140 5140
2
Copper Wire Size
1 0 00 000 0000 250 300 350 400 500
200V
60Hz 3
Phase
3 Wire
25
30
1/2
3/4
1
1-1/2
2
3
1-1/2
2
3
5
7-1/2
10
15
20
0
0
0
0
310
240
180
110*
0
0
0
0
500
390
290
170
790 1260 1960 3050 3780
610
470
280
200
0
0
0
970 1520 2360 2940 3610 4430 5420
740 1160 1810 2250 2760 3390 4130
440
310
230*
160*
0
690 1080 1350 1660 2040 2490 3050 3670 4440 5030
490
370
250*
770
570
960
720
390 490
190* 300* 380
1180 1450 1770 2170 2600 3150 3560
880 1090 1330 1640 1970 2390 2720 3100 3480 3800 4420
600
460
740
570
910 1110 1340 1630 1850 2100 2350 2570 2980
700 860 1050 1270 1440 1650 1850 2020 2360
0
0
0
0
0
0
0
0
0
0
240*
0
300* 370* 460 570
250* 310* 380* 470
930 1490 2350 3700 5760 8910
670 1080 1700 2580 4190 6490 8060 9860
560
420
320
240
910
670
510
390
1430 2260 3520 5460 6780 8290
1060 1670 2610 4050 5030 6160 7530 9170
810
620 990
700
580
1280 2010 3130 3890 4770 5860 7170 8780
840
700
1030
850
1540 2400 2980 3660 4480 5470 6690 8020 9680
1170
970
1330 1500 1640 1900
1110 1250 1360 1590
230V
60Hz 3
Phase
3 Wire
460V
60
Hz 3
Phase
3 Wire
40
50
60
75
15
20
25
30
100
5
7-1/2
10
15
20
25
30
1/2
140*
0
0
0
0
0
0
230
160*
0
0
0
0
0
370
260
190*
0
0
0
0
3770 6020 9460
590
420
310
210* 330
0
0
0
920 1430 1790 2190 2690 3290 4030 4850 5870 6650 7560 8460 9220
650 1020 1270 1560 1920 2340 2870 3440 4160 4710 5340 5970 6500 7510
490
250*
0
0
760
520
400 500
320* 400
260*
950
650
330*
1170
800
610
500
410*
1440 1760 2160 2610 3160 3590 4100 4600 5020 5840
980
760
610
510
1200 1470 1780 2150 2440 2780
930 1140 1380 1680 1910 2180 2450 2680 3120
750
620
3/4
1
2
3
5
7-1/2
10
2730 4350 6850
2300 3670 5770 9070
1-1/2 1700 2710 4270 6730
1300 2070 3270 5150 8050
1000 1600 2520 3970 6200
590
420
310
950
680
500
1500 2360 3700 5750
1070 1690 2640 4100 5100 6260 7680
790 1250 1960 3050 3800 4680 5750 7050
920
760
1120
3110 3400 3940
1360 1540 1760 1980 2160 2520
930 1130 1280 1470 1650 1800 2110
0
0
0
0
0
0
0
0
0
340*
0
0
0
0
0
0
0
0
540
410* 650 1030 1610 2000 2470 3040 3730 4580 5530
0
0
0
0
0
0
0
850 1340 2090 2600 3200 3930 4810 5900 7110
530* 830 1300 1620 1990 2450 3010 3700 4470 5430
430* 680 1070 1330 1640 2030 2490 3060 3700 4500 5130 5860
0
0
0
0
0
500*
0
0
0
0
790
640*
0
980 1210 1490 1830 2250 2710 3290 3730 4250
540* 670* 830* 1020 1250 1540 1850 2240 2540 2890 3240 3540 4100
0
800
0
0
980 1210 1480 1810 2190 2650 3010 3420 3830 4180 4850
680* 840* 1030 1260 1520 1850 2100 2400 2700 2950 3440
0 620* 760* 940* 1130 1380 1560 1790 2010 2190 2550
CAUTION: Use of wire size smaller than listed will void warranty.
(*) Meet the U.S. National Electrical Code ampacity only for individual conductor 60ºC cable. Only the lengths without * meet the code for jacketed 60ºC cable. Local code requirements may vary.
Maximum lengths shown maintain motor voltage at 95% of service entrance voltage, running at maximum nameplate amperes. If service entrance voltage will be at least motor nameplate voltage under normal load conditions, 50% additional length is permissible for all sizes.
This table is based on copper wire. If aluminum wire is used it must be two (2) sizes larger. Example: When the table calls for #12 copper wire you would use #10 aluminum wire.
Single phase control boxes may be connected at any point of the total cable length.
Cables #14 to #0000 are AWG sizes.
3
Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
READ THESE INSTRUCTIONS COMPLETELY BEFORE INSTALLATION
ASSEMBLY
CAUTION: Be sure pump size corresponds with horsepower size of motor. If pump size exceeds recommended motor, overloading of motor and damage to the motor could result.
1. If not yet assembled, check that the pump and motor mounting faces are free from dirt.
2. Assemble the pump liquid end and motor together so that mounting faces are in contact. Then tighten assembly bolts evenly.
NOTE: Apply non-toxic FDA approved waterproof grease such as Mobile 102, Texaco CYGNUS2661 or equivalent to the coupling before assembly of pump coupling to motor shaft. This will prolong spline life and prevent abrasives from entering the spline area.
3. Check for free rotation of the pump and motor. A slight drag is permissible.
4. Assemble the pump lead guard over the motor leads.
CAUTION: Do not cut or pinch lead wire during assembly.
5. Assemble suction screen to pump mounting ring.
Liquid
End
Motor
IL0094B
Lead Wire
Guard
Figure 3
PRE-INSTALLATION
To save possible added expense and extra trips, observe and complete as many as possible of the following precautions and pre-installation procedures before going to the job site or beginning the installation.
IMPORTANT PRECAUTIONS
1. Prior to installation, inspect the pump for damage.
Check for free pump and motor rotation. A slight drag is permissible.
2. Check to make certain that the voltage of the motor end and control agree with the available phase and voltage. Check power source. Check electrical supply for correct fusing, correct wire size, and adequate grounding and transformer size.
WARNING: Since most submersible pump problems are electrical, it is very important that all electrical work be done properly. Therefore, all electrical hook-up work or electrical service work should be done by a qualified electrician or service man only!
3. Throughout installation, take care not to damage the insulation of the electrical cable or motor leads.
Never support the weight of the unit by electrical cable or motor leads.
4. Before the pump is installed, the well should be pumped free of sand and other foreign matter with a test pump. The warranty is void if it is used to clean the well.
5. Follow wiring directions in the control box and make momentary tests to see that motor runs. (It is normal to hear some noise from the pump when you are momentarily testing it). Do not run pump dry for more than three (3) seconds.
MAJOR WELL COMPONENTS (see Figures 1 & 2)
1. Submersible Pump — A submersible pump is a multistage centrifugal. Each stage consists of an impeller and diffuser. Water pressure increases in equal amounts as it passes from stage to stage. The more stages, the higher the pressure the pump will develop.
2. Submersible Motor — Submersible pumps can be powered by either single phase or three phase motors. Make certain that the motor corresponds with the horsepower required by the pump. Failure to do so, could result in overloading of the motor and motor damage.
3. Control Box — Single phase submersible motors require the use of an above ground control box for starting. Operation of these motors without control boxes or with incorrect boxes can result in failure of motors which will void the warranty.
4. Magnetic Starters and Overload Protection —
Three phase submersible motors require the use of an above ground magnetic starter and overload protection. Operation of these motors without or incorrect starters and protectors will result in the failure of motor which will void the warranty. See
Magnetic Starter Chart for the correct selection of magnetic starters and ambient compensated quick trip protectors.
5. The Well — The well should be sand free and have a sufficient flow of water to supply the pump. Clear well of sand and any other foreign matter with a test pump before installing the new submersible pump.
CAUTION: Using the submersible pump to clean the well will void the warranty.
6. When drilling a new well in an area where sand is a problem, a sand screen should be installed to protect the pump and motor.
7. The well should be straight so damage during installation does not occur to the pump or motor by becoming lodged in a crooked well casing.
4
Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
8. The complete pump and motor should be submerged at least twenty feet below the draw down level of the well, and the motor should be a minimum of ten feet off the bottom of the well (Figure 4).
20 Ft.
Drawdown
Water Level a float assembly (air volume control) in the upper side tapping of the tank (See Figure 2).
b. In a pre-charged tank, a flexible diaphragm or bladder separates the air and water areas of the tank. The air chamber is pre-charged by means of a tire valve with pressure 2 PSI less than the cuton pressure of the pump. Because the air is not in contact with the water, it cannot be absorbed by the water. Therefore, the original charge of air is never lost.
13. In pre-charged tank systems, none of the fittings for air introduction or air level control are required (Figure
1). The piping in the well is also different for the two systems. The pre-charged tank system does not require a bleeder orifice assembly, which simplifies the installation.
10 Ft. Min.
Top of Well Screen
Bottom of Well
Figure 4
9. The Piping — Install the pump with pipe of the same diameter as the discharge port of the pump or larger.
NOTE: Use of pipe smaller that the discharge port of the pump will restrict the capacity of the pump and lower its operating performance.
10. Check Valve — A check valve is required on all submersible installations. This valve maintains water within the pipe when the pump is running. A line check should be installed within 25 feet of the pump and below the draw down level of the water supply.
a. For well depths exceeding 200 feet, it is suggested that an additional check valve be installed every
100 feet.
b. An additional check valve should be installed in the horizontal line between the well top and the pressure tank (See Figures 1 & 2).
CAUTION: Make certain that the check valve is pointing in the right direction, arrow pointing towards the tank.
11. Torque Arrester — To center the pump as it is being lowered into the well, a torque arrester is recommended. This will also minimize the pump whipping due to the starting torque of the motor (See
Figure 2).
NOTE: On plastic pipe installations a torque arrester must be installed. Cable guards should also be installed.
12. Pressure Tank — The purpose of the pressure tank is to allow an amount of water to be drawn before the pressure drops enough to cause the pump to start.
Without a pressure tank, the pump would start and stop continuously when water is drawn. There are two types of pressure tanks, the standard tank that requires an air volume control and the pre-charged tank.
a. On a standard pneumatic tank system, air is introduced to compensate for that which is absorbed by the water. Each time the pump cycles air is added to the tank through a bleeder and snifter valve. The excess air is released by
Pump on.
Water enters the reservoir
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Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
System Filled.
Pump Off
IL0096
Figure 5
14. The tank size should be selected to keep the pump starts per day as low as practical for maximum life.
Excessive motor cycling accelerates motor bearing and spline wear, pump wear and contact erosion.
Use as a guide, 100 starts per day (24 hours) on single phase motors and 300 starts per day on three phase units.
15. Pressure Switch — The pressure switch provides for automatic operation. The pump starts when the pressure drops to the switch cut-in setting and stops when the pressure reaches the switch cut-out setting.
The pressure switch must be installed as close to the tank as possible (Figures 1 & 2).
16. Pressure Relief Valve — A properly sized pressure relief valve must be installed on any installation where the pump pressure can exceed the pressure tank’s maximum working pressure or on systems where the discharge line can be shut off or obstructed. The relief valve drain port should be piped to a drain
(Figures 1 & 2).
WARNING: Not providing a relief valve can cause extreme over pressure, which could result in personal and/or property damage.
17. Pitless Adapter — A pitless adapter provides below grade discharge while maintaining above grade access to the well. Placed below the frost line they are frost proof and also prevent well contamination by providing a water tight seal between the vertical drop pipe and the horizontal service pipe connection
(Figure 1).
18. Well Seal — On well seal installations the piping in the well projects above the well and is connected above ground to the system piping by means of a tee or elbow. Since the plumbing is above ground, it must be protected from freezing (Figure 2).
19. Submersible Cable — Submersible power cable must be UL listed for submersible pump application.
Selecting the proper cable size is important.
Undersized cable results in a too low voltage supply to the pump motor and ultimate motor failure. Oversized cable is costly and not necessary. Refer to cable selection chart for proper cable selection. Cable is selected for the maximum pump setting plus the offset distance to the service entrance.
20. Ground Wire — The National Electric Code (NEC 250-
43) requires a separate ground wire be run down the well to the submersible pump and to be connected to all exposed metal parts of the pump and motor. Refer to the most recent National Electric Code (NEC) for additional grounding information. All wiring should be done by a competent electrician.
INSTALLATION
SUBMERSIBLE CABLE INSTALLATION
1. Check power source. Check electrical supply for correct fusing, correct wire size, and adequate grounding and transformer size.
WARNING: Since most submersible pump problems are electrical, it is very important that all electrical work be done properly. Therefore, all electrical hook-up work or electrical service work should be done ny a qualified electrician or serviceman only!
2. Follow wiring directions in the control box and make momentary tests to see that the motor runs. Do not run pump dry for more than three (3) seconds.
If test is satisfactory, proceed to Step 3 (cable splice).
3. First check cable size against the Submersible
Wire Size Chart. Use extreme care; this is a very important step. If required length falls between two wire sizes, use the larger of the two wire sizes
(smaller number).
IMPORTANT: Use of wire sizes smaller than those specified in the charts will cause low starting voltage, may cause early pump failure and will void the warranty.
Larger wire sizes may always be used for better operating economy.
4. Splice motor leads to submersible cable with commercially available potting, heat shrink splicing kits or by careful tape splicing. Tape splicing should use the following procedure.
a) Strip individual conductor of insulation only as far as necessary to provide room for a stake type connector. Tubular connectors of the staked type are preferred. If connector O.D. is not as large as cable insulation, build-up with rubber electrical tape.
b) Tape individual joints with rubber electrical tape, using two layers; the first extending two inches beyond each end of the conductor insulation end, the second layer two inches beyond the ends of the first layer. Wrap tightly, eliminating air spaces as much as possible.
c) Tape over the rubber electrical tape with #33
Scotch electrical tape, (Minnesota Mining Co.) or equivalent, using two layers as in step “B” and making each layer overlap the end of the preceding layer at least two inches.
5. In the case of a cable with three conductors encased in a single outer sheath, tape individual conductors as described, staggering joints. Total thickness of tape should be less than the thickness of the conductor insulation.
GROUND WIRE INSTALLATION
WARNING: Motor frame must be connected to power supply ground or fatal electrical shock may result.
Staked Connector
2” 2”
2” 2”
Rubber Tape
PVC Electrical Tape
IL0097
Figure 6
NOTE: All electrical wiring should be done by a competent electrician.
1. Grounding the submersible pump is accomplished by running a copper grounding wire from the pump motor to the main electrical system ground.
2. The ground wire to be used must be of the same size as the submersible power cable. It may be insulated or bare. If insulated, it must be green, with or without yellow stripe(s). The ground wire may be part of, or separate from, the supply cable. It may be continuous or spliced above the pump along with the supply cable.
3. The motor lead wire assembly includes a green insulated ground lead. Splice the ground wire to the green insulated lead as shown in Figure 6.
4. The other end of the ground wire will be connected to the power supply grounding terminal or to the control panel ground bar if it is connected to the power supply ground.
NOTE: See section entitled Grounding for detailed grounding instructions.
6
Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
INSULATION AND CONTINUITY TEST
1. It is recommended that this test be done when the splicing is complete and pump is being test run in a tank of water. This test can be repeated after installation in well but before the final electrical hookup is made to the control box or pressure switch (see
Figures 7 & 8).
POWER
OFF ON
DCV
ï€ï€±ï€®ï€¹ï€¹ï€¹
LOGIC
ACV hFE
ACA
DCA
HI
LO
V-Ω
LOGIC
COM mA 10A
1000VDC
750VAC MAX
500V
MAX 10A MAX
Figure 7 IL0098
POWER
OFF ON
DCV
ï€ï€±ï€®ï€¹ï€¹ï€¹
LOGIC
ACV hFE
ACA
DCA
HI
LO
VΩ
LOGIC
COM mA
1000VDC
750VAC MAX
500V
MAX 10A MAX
10A
POWER
OFF ON
DCV
ï€ï€±ï€®ï€¹ï€¹ï€¹
LOGIC
ACV hFE
ACA
DCA
HI
LO
VΩ
LOGIC
COM mA
1000VDC
750VAC MAX
500V
MAX 10A MAX
10A
2.
Zero the ohmmeter by clipping the leads together and adjusting the zero ohm knob until the needle indicates zero. Zero the ohmmeter before each use or every time selector switch is changed.
3. Clip one ohmmeter lead to bare cable end.
4. Clip the other lead to edge of steel tank in which pump and cable are submerged. If pump is already in the well, clip lead to discharge pipe metal well casing or bare ground wire.
5. A reading of less that 1,000,000 ohms indicates that cable or splice is grounded. Slowly raise cable from the water at the ohmmeter end. When trouble spot moves clear of the water, needle will move toward infinity reading. In an old installation with the pump in the well, a reading of 20,000 ohms or less indicates a breakdown in the insulation; in this case pull the pump.
PUMP INSTALLATION
1. The following pump installation instructions use
Schedule 80 PVC pipe or galvanized pipe. If either of these two types are used, a foot clamp or vise will be required to hold the PVC or galvanized pipe when connecting the next pipe length.
2. Install the pump in a well which is sand-free, straight, and has sufficient flow of water to supply the pump.
Clear well of sand and any other foreign matter with a test pump before installing the submersible pump.
NOTE: Using the submersible pump to clean the well will void the warranty. When drilling a new well in an area where sand is a problem, a sand screen must be installed to protect the pump and motor.
3. Chlorinate the well first. Drop 24 to 48 HTH (chlorine) tablets into the well before lowering the pump into the well. This will prevent contamination and the growth of iron bacteria which could later plug the well and the pump. The chlorinated water will be pumped out of the system when testing the pump flow.
4. BE SURE the top edge of the well casing is perfectly smooth; sharp or jagged edges can cut or scrape the cable and cause a short.
5. Install a line check valve within 25 feet of the pump and below the draw down level of the water supply.
The check valve should be the same size as the discharge outlet of the pump or larger.
NOTE: Use of pipe smaller that the discharge tapping of the pump will restrict the capacity of the pump and lower its operating performance.
6. When connecting the first length of pipe and placing the pump in the well casing, care should be maintained to center the pump in the well. It is easier to handle the pump if a short piece of pipe is installed first, rather than a long piece. Install the check valve at the end of the first piece of pipe prior to lowering the pump into the well. Maintain alignment as the pump is placed and lowered into the well, a torque arrester is recommended. Position the torque arrestor to within 6” of the pump discharge and clamp arrestor to pipe. Wrap the pipe with enough tape at top and bottom of torque arrestor to keep it from sliding up the pipe while the pump is being lowered into the well.
7. If not already done, splice the electrical cable to the motor leads. The cable and ground wire should be taped to the discharge pipe. Tape the cable about 5 feet above the discharge and every 20 feet thereafter.
Install cable guards if required to eliminate rubbing against the well casing. Do not let the cable drag over the edge of the well casing. Never allow the weight of the pump to hang on the cable alone.
7
Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
8. Lower the pump into the well slowly without forcing.
Use a vise or foot clamp to hold the pipe while connecting the next length. A boom, tripod or pump setting rig is recommended. Lower pump to approximately 10 feet below maximum draw down of the water if possible and keep approximately 10 feet from the bottom. DO NOT set pump on bottom of well. Before each new length of pipe is added, attach the coupling to the top of the pipe length. This will provide a stop for the foot clamp to hold while the next section of pipe is being installed.
9. On a standard tank with an air volume control a bleeder orifice is required. Install the bleeder orifice in the discharge pipe 5 feet or more below the snifter valve. See Figure 2 and the table below.
Distance Table
Tank Size
Gallons
42
82
120
220
315
525
Depth From Horizontal Check
Valve To Bleeder Orifice
5
10
15
15
20
20-35
Installations that use a pre-charged pressure tank do not require a bleeder orifice.
WELL SEAL/PITLESS ADAPTER INSTALLATION
1. All installations should have a well seal. Make sure the seal is seated and tighten the bolts evenly.
NOTE: Be sure to assemble the tee to the pipe above the well seal to prevent dropping the pipe and pump down the well as you lower it.
IMPORTANT: Well seal and piping must be protected from freezing.
2. On a pitless adapter installation, the connection to the system supply line is made below ground. Install the pitless adapter following the instructions included with particular brand or design being used in the installation.
NOTE: Follow ALL applicable state and local plumbing codes.
PRELIMINARY TEST RUN
1. When pump is at desired depth, install throttle valve for preliminary test run. Wire single phase motors through the control box, following instructions in box regarding color coding of wires, etc. Wire 3-phase motors through a magnetic starter. Test cable for continuity with an ohmmeter.
2. With pump discharge throttled, run pump until water is clear of sand or any other impurities. Gradually open discharge.
CAUTION: Be sure you do not stop pump before water runs clear. This may take several hours. If pump stops with sand in it, it will lock.
3. If pump lowers water in the well far enough to lose prime, either lower pump in the well (if possible) or throttle discharge to capacity of the well.
4. If well is low capacity, use a low water level control.
5. On 3-phase units, establish correct motor rotation by running in both directions. Change rotation by exchanging any two of the three motor leads. The rotation that gives the most water flow is always the correct rotation.
PRESSURE TANK INSTALLATION
1. On a new installation, install the pressure tank along with the pressure switch, pressure gauge, pressure relief valve, check valve, gate valves and unions as shown in Figures 1 & 2.
2. On replacement pump installations be sure that the tank system is in good operating condition, as a water logged tank may cause pump failure.
ELECTRICAL HOOK-UP
WARNING: Since most submersible pump problems are electrical, it is very important that all electrical work be done properly. Therefore, all electrical hook-up work or electrical service work should be done by a qualified electrician or serviceman only!
WARNING: Always disconnect power source before working on or near motor, its connected load or control box and wiring. If the power disconnect is out of sight, lock it in the open position and tag to prevent unexpected application of power.
1. Proceed with electrical hook-up matching cable colors and following the wiring diagrams (Figures 9, 10 &11) or inside the lid of the control box.
WARNING: Connect motor leads momentarily for correct rotation before installing pump in well.
FUSE SIZES
Fused Disconnect
Switch
Control Box
L1 L2
R Y B
Lightning
Arrestor
To Motor
Figure 9 — Single Phase Control Box
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Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
IL0100
Fused Disconnect
Switch
Control Box
SW L1 L2
R Y B
Lightning
Arrestor
To Motor
Pressure
Switch
Figure 10 —
Single Phase Control Box with Contactor
IL0100
Pressure
Switch
Fused Disconnect
Switch
L1 L2
3
2
V
M
W
T1 T2 X2
T3
L3
Lightning
Arrestors
T1
Motor
T3
Ground
Figure 11 — Three Phase Magnetic Starter
IL0102
1. For proper sizing of fuses for fuse disconnect box, see Motor Data Charts. Improperly sized fuses will result in fuses blown or circuit breakers tripped.
GROUNDING
Proper Grounding of Submersible Motors
1. The purpose of grounding any electrical apparatus is to prevent an electrical shock hazard if exposed metal becomes connected to an electrical circuit. This can occur from a defect in construction of the electrical equipment, physical damage, or a breakdown in the insulation of the equipment. Grounding prevents shock hazard by keeping exposed metal from reaching a voltage level which could endanger anyone coming in contact with the electrical equipment. Fault current is “drained” by the ground conductor, and if the fault is severe enough, the circuit will be opened by the fuse or circuit breaker.
2. The U.S. National Electrical Code (NEC) requires that motor-operated water pumps, including submersible type regardless of voltage, shall be grounded. The
Canadian Electrical Code specifically discusses grounding requirements for submersible pumps.
Interpretation of these and other codes may vary in different states and localities, but all applicable national, state, and local codes should always be followed.
3. Any submersible motor which is to be run tested out of the well should be grounded to prevent possible shock hazard during the test.
NOTE: Always disconnect all power when making ohmmeter check and while pulling or installing a pump.
4. The most logical way to “frame” ground a submersible motor is normally as follows:
a. Run an extra wire with the motor power conductors.
This wire must be sized to meet Table 250-95 in the
U.S. National Electrical Code. If code information is unavailable, using the same size wire as the power conductors is normally adequate.
b. The ground wire may be insulated or bare. If insulated, it must be green with or without yellow stripe(s). The ground wire may be part of, or separate from the supply cable. It may be continuous or spliced above the pump along with the supply cable.
c. Connect the green or bare ground wire to the green ground wire of the submersible motor lead assembly. If the lead wire assembly does not include a separate ground wire, attach a lug to the ground wire and place the lug over one of the motor studs above the pump intake flange so the pump will not be cocked. The ground lug will then be secured with the nut which holds the pump on the motor.
d. Connect the other end of the ground wire to the power supply grounding terminal or to the control panel ground bar if it is connected to the power supply ground.
e. All connections should be tight and corrosion resistant, including screws, lugs or clamps.
Grounding Control Boxes
1. It is recommended the control box grounding terminal always be connected to circuits which include a grounding conductor. In fact, this is a requirement of the National Electrical Code. If the circuit has no grounding conductor and no metal conduit from the box to supply panel, use a wire at least as large as line conductors and connect from supply panel to the control box and to the motor lead ground wire.
WARNING: Failure to ground the box frame can result in a fatal electrical shock hazard if a circuit fault occurs.
WARNING: Serious or fatal electrical shock may result from failure to connect all metal plumbing, and the motor if outside a drilled well, to the power supply grounding terminal with wire no smaller than motor cable wires. Do not use motor in swimming area.
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Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
Grounding Lightning Arrestors In Control Boxes
1. When the box has a lightning arrestor, it must be grounded, metal to metal, all the way to the water strata for the lightning arrestor to be effective.
Grounding the arrestor to a driven ground rod provides little or no protection for the motor.
SUBMERSIBLE MOTOR COOLING
1. When the pump is set below any screen openings or below the bottom of the casing a top feeding well condition can exist which reduces the rate of cooling water flow past the motor.
2. If the flow rate is less than specified a flow indicator sleeve or an alternate method of increasing water velocity past the motor must be used for proper cooling.
Minimum Velocity Past the Motor
4” dia. motor – .25 ft./sec. (7.62 cm/sec)
6” dia. motor – .5 ft./sec/ (15.24 cm/sec)
3. A flow inducer sleeve is a tube over the motor, closed off above the pump intake and extended to the bottom of the motor or lower. The sleeve material is corrosion resistant metal or heavy plastic (See Figure 12).
Pump Body
Stainless Steel
Worm Gear Clamps
Intake Screen
Flow Inducer Screen
(Corrosion Resistant
Material)
Submersible Motor Centering Bolt
Corrosion Resistant
(3 Places)
All Water Flows
Past Motor
IL0103
Figure 12
4. A flow inducer sleeve should always be used when the pump is in an open body of water. Make sure that such an installation is grounded.
Required Cooling Flow
Minimum GPM required for motor cooling in water up to 86ºF (30ºC).
Inches
Casing or
Sleeve I.D.
8
10
12
14
16
6
7
4
5
4” High
Thrust Motor
.25 ft/sec
GPM
1.2
7
13
20
30
50
80
110
150
6” Motor
.5 ft/sec
GPM
45
90
140
200
280
—
—
9
25
8” Motor
.5 ft/sec
GPM
10
55
110
170
245
—
—
—
—
MAINTENANCE
SERVING SUBMERSIBLE MOTOR AND CONTROLS
1. The following is included to assist in motor installation and servicing. These procedures are limited to the motor and control system: they do not include pump requirements.
TIGHTENING LEAD CONNECTOR JAM NUT
1. It is recommended that possible damage from removal may prevent resealing. Torque the jam nut from 15 to
20 lb. ft. on 4” motor and 60 to 70 lb. ft. on a 6” motor.
CABLE IDENTIFICATION WHEN COLOR CODE IS
LOST
(Single Phase Only)
If the colors on the individual drop cables cannot be determined and the leads cannot be positively identified, proceed as follows:
1. Disconnect all three drop cables from the control box.
For temporary identification, tie a numbered tag to each cable (1, 2, 3).
2. Using an ohmmeter, check the resistance between cables as follows:
Unknown Value
Cable 1 to Cable 2
Cable 1 to Cable 3
Cable 2 to Cable 3
Known Value
Lowest - Black to Yellow
Intermed. - Red to Yellow
Highest - Black to Red
NOTE: The “yellow” cable is that giving lowest and intermediate readings and the “red” cables gives highest and intermediate readings.
Example:
• 1 to 2 gives 7 ohms (highest reading)
• 1 to 3 gives 5 ohms (intermediate reading)
• 2 to 3 gives 2 ohms (lowest reading)
• Cable 3 gave both intermediate and lowest reading
• Cable 3 is the yellow cable
• Cable 1 gave both highest and intermediate readings
• Cable 1 is the red cable
• Cable 2 is the black cable
The actual ohm values are not important. The method works regardless of the actual ohm readings; what matters is which reading is highest, which intermediate, and which lowest.
THREE PHASE POWER UNBALANCE
1. A full three phase supply is recommended for all three phase motors, consisting of three individual transformers or one three phase transformer.
So-called “open” delta or wye connections using only two transformers can be used, but are more likely to cause problems from current unbalance.
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Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
25
30
40
50
60
75
100
1-1/2
2
3
5
7-1/2
10
15
20
2. Transformer ratings should be no smaller than listed in the table for supply power to the motor alone.
Open Wye or Delta systems often suffer from line unbalance, which can cause poor motor performance, nuisance overload tripping, or premature motor failure. For the best performance current unbalance should not exceed 5 percent. If the unbalance cannot be corrected by rolling leads, contact the power company.
Transformer Capacity Required for
Submersible Motors
Motor
HP
Total
Effective
KVA
Required
Smallest KVA Rating — Each
Transformer
Open WYE or
DELTA
2 Transformers
Closed WYE or
DELTA
3 Transformers
30
40
50
60
75
90
120
10
15
20
25
3
4
5
7.5
40
50
65
20
25
30
35
7.5
10
15
15
3
5
2
2
25
30
40
10
15
20
20
5
5
7.5
10
1
1.5
2
3
INSULATION RESISTANCE
Unbalance Formula
Percent
Current = Max difference from average x 100
Unbalance average
Example:
Currents are 80, 79, 84 amps (Lines 1-2 & 3)
Avg. Currents = 80 + 79 + 84 = 81
3
Percent
Current
Unbalance
84 - 81 x 100 = 3.7%
81
Open Delta
Full Three Phase
Figure 13
IL0104
Insulation resistance tests indicate the value of the motor, cable, and splice insulation system by measuring resistance in ohms between motor leads and ground.
Low readings indicate a breakdown somewhere in the insulation system.
1. Set ohmmeter to RX100K or highest scale. (For best results use a megohmmeter).
2. Short meter leads together and adjust indicator to zero.
3. Be sure power is turned off!
4. Connect one meter lead to a motor lead and the other meter lead to ground.
a. If motor is out of water, measure from lead to motor frame.
b. If motor is installed in water, ground reference should be metal well casing (if submerged), metal drop pipe, or an extra wire extending into the ground water.
5. Readings and Conditions, motor installed in well:
a. 2,000,000 ohms or more - insulation completely acceptable.
b. 500,000 to 2,000,000 ohms - insulation in reasonably good condition. Acceptable. Should be considered marginal for new motor.
c. 20,000 to 500,000 ohms - insulation seriously damaged, but motor may still operate.
d. Less than 20,000 ohms - severe insulation damage. Motor probably not operable.
WINDING RESISTANCE
Winding resistance tests indicate whether or not windings are internally correct, shorted, or open. Winding resistance should be considered independently of insulation resistance readings.
1. Set ohmmeter to RX1. Short meter leads together and adjust indicator to zero.
2. Be sure power is turned off.
3. Connect ohmmeter between two motor leads.
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Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
a. Three wire single phase: Yellow-Black indicates main winding resistance; Yellow-Red indicates start winding resistance.
b. Three phase: Resistance values should be equal on all three phases: Yellow-Black; Yellow-Red;
Black-Red.
4. Correct readings should be equal to the Line-to-Line resistance values from the specifications section for a given motor, plus the resistance of the drop cable from the table below.
5. Conditions:
Resistance (Ohms) Per 100 Feet of Copper Cable
(Round Trip)
AWG
Ohms
14 12 10
.5
.3
8 6 4 2 0
.2
.12 .08 .05 .03 .02
a. If one ohm value is less than specified, that winding is shorted.
b. If one ohm value is greater than specified, that winding is open, or there is a poor connection in that circuit.
c. On 3-wire single phase, if one ohm value is greater than specified and one ohm value is less than specified, the leads are mixed. See the section entitled “Cable Identification When Color
Code Is Lost.”
TESTING LOAD CURRENT AMPS
To test load current amps a clamp-on ammeter is required. Since the ammeter measures current flow, the motor must be running.
1. Pull the motor lead wire, being measured, (red, yellow or black) away from all other wires.
2. Set ammeter to the highest scale. (If starting a motor leave on the scale until current settles down).
3. Place tongs of meter around wire.
4. Change meter scale to one that gives the best accuracy. This will be a reading between mid scale and full scale.
5. Compare reading with current load amps on motors data chart.
6. Test each motor lead.
ONE YEAR LIMITED WARRANTY
This product is warranted for one year from the date of purchase or two years from the date of manufacture, whichever occurs first. Subject to the conditions hereinafter set forth, the manufacturer will repair or replace to the original consumer, any portion of the product which proves defective due to defective materials or workmanship. To obtain warranty service, contact the dealer from whom the product was purchased. The manufacturer retains the sole right and option to determine whether to repair or replace defective equipment, parts or components. Damage due to conditions beyond the control of the manufacturer is not covered by this warranty.
THIS WARRANTY WILL NOT APPLY: (a) To defects or malfunctions resulting from failure to properly install, operate or maintain the unit in accordance with printed instructions provided; (b) to failures resulting from abuse, accident or negligence or use of inappropriate chemicals or additives in the water; (c) to normal maintenance services and the parts used in connection with such service; (d) to units which are not installed in accordance with normal applicable local codes, ordinances and good trade practices; and (e) the unit is used for purposes other than for what it was designed and manufactured.
THE WARRANTY PROVIDED HEREIN IS IN LIEU OF ALL OTHER
EXPRESS WARRANTIES, AND MAY NOT BE EXTENDED OR MODIFIED
BY ANYONE. ANY IMPLIED WARRANTIES SHALL BE LIMITED TO THE
PERIOD OF THE LIMITED WARRANTY AND THEREAFTER ALL SUCH
IMPLIED WARRANTIES ARE DISCLAIMED AND EXCLUDED. THE
MANUFACTURER SHALL NOT, UNDER ANY CIRCUMSTANCES, BE
LIABLE FOR INCIDENTAL, CONSEQUENTIAL OR SPECIAL DAMAGES,
SUCH AS, BUT NOT LIMITED TO DAMAGE TO, OR LOSS OF, OTHER
PROPERTY OR EQUIPMENT, LOSS OF PROFITS, INCONVENIENCE, OR
OTHER INCIDENTAL OR CONSEQUENTIAL DAMAGES OF ANY TYPE
OR NATURE. THE LIABILITY OF THE MANUFACTURER SHALL NOT
EXCEED THE PRICE OF THE PRODUCT UPON WHICH SUCH LIABILITY
IS BASED.
This warranty gives you specific legal rights, and you may have other rights which vary from state to state. Some states do not allow limitations on duration of implied warranties or exclusion of incidental or consequential damages, so the above limitations may not apply to you.
RETURN OF WARRANTED COMPONENTS: Any item to be repaired or replaced under this warranty must be returned to the manufacturer at
Kendallville, Indiana or such other place as the manufacturer may designate, freight prepaid.
In those instances where damages are incurred as a result of an alleged pump failure, the
Homeowner must retain possession of the pump for investigation purposes.
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Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
Single Phase Control Box Checking and Repairing Procedures
CAUTION: Turn power off and discharge capacitors before using ohmmeter.
TEST PROCEDURE
General Procedures 1. Disconnect line
2. Inspect for damaged or burned parts, loose connections, etc.
3. Check for misconnections against diagram in control box
4. If problem has not been found, check motor per Motor Data Chart and control box as indicated below
Use of Ohmmeter
Ground (Insulation Resistance) Test
Overload Protector
Capacitor Tests
Relay Coil Test
(potential relays only)
Relay Contact Test
(potential relays only)
Contactor Test
1. Ohmmeter such as Simpson Model #372 or #260, Triplett Model #630 or
#666 may be used
2. Whenever scales are changed, short ohmmeter leads and “zero balance” meter
1. Ohmmeter Setting: Highest scale (usually R x 100K or 4 x 10,000)
2. Terminal Connections: One ohmmeter lead to “Ground” terminal on control box and touch other lead to each of the other terminals on terminal board
3. Ohmmeter Reading: Pointer should remain at ( ∞ ) and not deflect
1. Ohmmeter Setting: R x 1
2. Terminal Connections: Connect one ohmmeter lead to Terminal Black and other lead to: a. Terminal L b. Terminal L
¹
²
in four-terminal boxes
in five-terminal boxes.
3. Ohmmeter Reading: Should be 0 to 0.5 ohms maximum
1. Ohmmeter Setting: R x 1,000
2. Terminal Connections: One ohmmeter lead to relay terminal #1 and other to black terminal on terminal board
3. Ohmmeter Reading: Pointer should swing toward “zero” and “float” back to ( ∞ ). Capacitor is shorted if pointer does not move back to ( ∞ ), open if it does not move from ( ∞ )
4. If reading is not as above, disconnect capacitor from overload and test each component
1. Ohmmeter Setting: 4 x 1,000 (or R x 100)
2. Terminal Connections: #6 and #2 on Relay
3. Ohmmeter Reading:
For 230 Volt Boxes
G.E. 4.5 - 7.0 (4500-7000 ohms)
Cardinal 2.8 - 4.2 (2800-4200 ohms
Most of the cases of inoperative relay contacts can be detected as follows:
1. Ohmmeter Setting: 4 x 1.
2. Terminal Connections: Terminal #1 and Terminal #2 on Relay.
3. Ohmmeter Reading: Should be “zero”.
NOTE: This test verifies “making” of contacts. If it is desired to test
“Opening” and closing of contacts:
a. Connect control box components in control box as indicated on diagram in control box cover.
b. Connect three leads from motor of correct rating to control box terminal board.
c. Connect power source voltage to L
¹
and L
²
.
d. Current in Red lead should momentarily be a high value - then drop
(within one second) to values on Motor Data Chart
1. Disconnect one coil lead.
2. Ohmmeter setting R x 100.
3. Check coil resistance: 180 to 1400 ohms.
4. Remove contact cover and inspect contacts.
13
Copyright © 2018. All rights reserved • 95 North Oak St. • Kendallville, IN 46755
HP Diameter Volts S.F.
1-1/2
2
3
5
7-1/2
5
7-1/2
10
15
20
25
30
40
50
60
75
100
4”
4”
4”
4”
4”
6”
6”
6”
6”
6”
6”
6”
6”
6”
6”
6”
8”
230 1.15
460 1.15
200 1.15
230 1.15
460 1.15
200 1.15
230 1.15
460 1.15
200 1.15
230 1.15
460 1.15
200 1.15
230 1.15
460 1.15
200 1.15
230 1.15
200
230
1.3
1.3
460 1.3
200 1.25
230 1.25
460 1.25
200 1.15
230 1.15
460 1.15
200 1.15
230 1.15
460 1.15
200 1.15
230 1.15
460 1.15
200 1.15
460 1.15
200 1.15
230 1.15
460 1.15
460 1.15
460 1.15
460 1.15
460 1.15
460 1.15
Any 2 Leads
1.0 - 1.2
3.9 - 4.8
.43 - .53
.64 - .78
2.4 - 2.9
.37 - .45
.47 - .57
1.9 - 2.4
.24 - .29
.28 - .35
1.1 - 1.4
.16 - .20
.22 - .26
.8 - 1.0
.12 - .15
.15 - .19
2.5 - 3.0
3.2 - 4.0
13.0 - 16.0
1.8 - 2.4
2.3 - 3.0
9.2 - 12.0
1.3 - 1.7
1.8 - 2.2
7.2 - 8.8
.74 - .91
1.0 - 1.2
4.0 - 4.9
.46 - .57
.61 - .75
2.5 - 3.1
.77 - .93
.63 - .77
.09 - .11
.14 - .17
.52 - .64
.34 - .42
.25 - .32
.22 - .27
.10 - .13
.07 - .09
FRANKLIN THREE PHASE MOTOR DATA — 60 HZ
Winding Resistance
(Ohms)
S.F. Load Current
(Amps)
Running Under
Load Each Lead
54.5
47.4
23.7
69.7
60.6
30.3
86.3
75.0
17.6
8.8
28.3
24.6
12.3
37.0
32.2
16.1
37.5
104.0
90.4
45.2
61.6
77.0
91.0
107
142
5.5
20.5
17.8
8.9
30.5
26.4
13.2
20.0
6.8
5.9
3.1
9.3
8.1
4.1
12.5
10.9
Locked
Rotor Amps KVA
306
266
133
416
362
181
552
480
86.0
43.0
150.0
130.0
65.0
198.0
172.0
86.0
240
653
568
284
397
414
518
864
1211
31.0
122.0
106.0
53.2
188.0
164.0
81.9
99.0
38.2
33.2
16.6
53.6
46.6
23.3
71.2
61.9
J
J
J
J
H
J
H
H
H
H
H
H
H
H
H
H
H
L
J
H
L
J
J
J
J
K
H
K
K
K
K
K
K
K
K
L
L
K
L
K
K
Fuse Size
(Amperage)
Dual
Element
70
35
100
90
60
60
30
80
15
45
40
20
20
10
35
30
45
125
100
50
70
90
100
125
175
35
30
15
25
6
25
20
10
10
5
15
12
4
11
8
8
STD
150
125
60
175
175
80
225
200
35
100
90
45
45
25
80
70
100
300
250
125
175
200
250
300
400
80
70
35
50
15
60
45
25
25
11
35
30
20
15
8
25
Troubleshooting Chart
Symptom
Fuses blow when motor starts
Possible Cause(s)
1. Incorrect voltage
Motor runs but fuses blow
Motor does not start and fuses do not blow
Pump runs, but delivers little or no water
1. Incorrect voltage
2. Overheated protectors
3. Improperly wired control box
4. Defective motor or cable
5. Defective pump
6. Defective installation
1. No power
2. Defective pressure switch
3. Defective wiring
1. Air locked pump
2. Low water level in well
3. Pump rotation wrong
4. Check valve stuck or installed improperly
5. Leak in drop pipe
6. Pump screen locked
7. Worn pump
8. Loose or broken motor shaft
Pump keeps running
Pump starts too often
2. Incorrect fuses
3. Defective pressure switch
4. Control box malfunction
5. Bound pump
6. Defective cable or motor winding
7. Shorted or open motor winding
1. Pressure switch
2. Low level well
3. Leak in system
4. Worn pump
1. Pressure switch
2. Leak in system
3. Check valve
4. Air supply (waterlogged tank - air under pressure absorbed into the water)
Corrective Action
1. Contact power company if voltage is incorrect after first checking for correct wire size. See Wire Size
Chart
2. Replace with proper fuses
3. Replace pressure switch or clean contacts
4. Correct faulty wiring or tighten loose contacts
5. Sand bound pump can sometimes be corrected by temporarily reversing black and red leads in control box then returning to normal. If pump does not rotate freely, it must be pulled and cleaned or realigned and the well condition corrected
6. The pump must be pulled and the cable disconnected and inspected. Damaged cable should be correctly spliced or replaced. If cable is good, the motor winding is grounded
7. The pump must be pulled and motor or drop cable repaired or replaced
1. Contact power company in incorrect
2. Shade box, provide ventilation or move box away from heat source
3. Rewire correctly
4. If ground, short or open circuit is indicated pump must be pulled for repair
5. Pull pump, clean and repair
6. Pull pump, rechecking components and installation
1. Replace fuses or reset circuit breaker. Contact power company if no power is reaching box
2. Replace pressure switch or clean contacts
3. Correct faulty wiring or connections
1. Normal delivery may resume if pump is started and stopped at one minute intervals
2. Throttle pump delivery through restricting valve.
Lower pump setting if depth of well is adequate
3. Check wiring connections
4. Replace or reinstall properly
5. Raise pipe, check for leak and replace damaged section
6. Clean screen and reset at less depth. It may be necessary to clean well
7. Pull pump and replace worn impellers, casing or other close fitting parts
8. Check for damaged shafts if coupling is loose and replace worn or defective units
1. Clean points or replace switch
2. Throttle pump output or reset pump to lower level.
Do not lower if sand may clog pump
3. Replace damaged section
4. Pull pump and replace
1. Reset limit or replace switch
2. Repair or replace tank or pipes
3. Remove and replace if defective
4. Clean or replace. Drain and recharge tank
14
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