Carrier Refrigerator 17 User Manual

17/19EX  
50/60 Hz  
Centrifugal Liquid Chillers  
with HFC-134a  
Installation Instructions  
SAFETY CONSIDERATIONS  
Centrifugal liquid chillers are designed to provide safe and  
DO NOT REUSE disposable (nonreturnable) cylinders or attempt to  
refill them. It is DANGEROUS AND ILLEGAL. When cylinder is emp-  
tied, evacuate remaining gas pressure, loosen the collar, and unscrew  
and discard the valve stem. DO NOT INCINERATE.  
reliable service when operated within design specifications.  
When operating this equipment, use good judgment and safety  
precautions to avoid damage to equipment and property or  
injury to personnel.  
CHECK THE REFRIGERANT TYPE before adding refrigerant to the  
machine. The introduction of the wrong refrigerant can cause  
machine damage or malfunction.  
Operation of this equipment with refrigerants other than those cited  
herein should comply with ASHRAE-15 (latest edition). Contact  
Carrier for further information on use of this machine with other  
refrigerants.  
Be sure you understand and follow the procedures and safety  
precautions contained in the machine instructions, as well  
as those listed in this guide.  
DO NOT VENT refrigerant relief devices within a building. Outlet from  
rupture disc or relief valve must be vented outdoors in accordance with  
the latest edition of ASHRAE (American Society of Heating, Refrig-  
eration and Air Conditioning Engineers) 15. The accumulation of re-  
frigerant in an enclosed space can displace oxygen and cause  
asphyxiation.  
PROVIDE adequate ventilation in accordance with ASHRAE 15, es-  
pecially for enclosed and low overhead spaces. Inhalation of high  
concentrations of vapor is harmful and may cause heart irregularities,  
unconsciousness, or death. Intentional misuse can be fatal. Vapor is  
heavier than air and reduces the amount of oxygen available for breath-  
ing. Product causes eye and skin irritation. Decomposition products are  
hazardous.  
DO NOT ATTEMPT TO REMOVE fittings, covers, etc., while  
machine is under pressure or while machine is running. Be sure pres-  
sure is at 0 psig (0 kPa) before breaking any refrigerant connection.  
CAREFULLY INSPECT all relief valves, rupture discs, and other re-  
lief devices AT LEAST ONCE A YEAR. If machine operates in a cor-  
rosive atmosphere, inspect the devices at more frequent intervals.  
DO NOTATTEMPT TO REPAIR OR RECONDITION any relief valve  
when corrosion or build-up of foreign material (rust, dirt, scale, etc.) is  
found within the valve body or mechanism. Replace the valve.  
DO NOT install relief devices in series or backwards.  
USE CARE when working near or in line with a compressed spring.  
Sudden release of the spring can cause it and objects in its path to act  
as projectiles.  
DO NOT USE OXYGEN to purge lines or to pressurize a machine for  
any purpose. Oxygen gas reacts violently with oil, grease, and other  
common substances.  
DO NOT USE air to leak test. Use only refrigerant or dry nitrogen.  
NEVER EXCEED specified test pressures. VERIFY the allowable test  
pressure by checking the instruction literature and the design pressures  
on the equipment nameplate.  
DO NOT STEP on refrigerant lines. Broken lines can whip about, and  
release refrigerant, causing personal injury.  
DO NOT VALVE OFF any safety device.  
BE SURE that all pressure relief devices are properly installed and func-  
tioning before operating any machine.  
DO NOT climb over a machine. Use platform, catwalk, or staging. Fol-  
low safe practices when using ladders.  
USE MECHANICAL EQUIPMENT (crane, hoist, etc.) to lift or move  
inspection covers or other heavy components. Even if components are  
light, use mechanical equipment when there is a risk of slipping or  
losing your balance.  
DO NOT WELD OR FLAMECUT any refrigerant line or vessel until  
all refrigerant (liquid and vapor) has been removed from chiller. Traces  
of vapor should be displaced with dry air or nitrogen and the work area  
should be well ventilated. Refrigerant in contact with an open flame  
produces toxic gases.  
DO NOT USE eyebolts or eyebolt holes to rig machine sections or the  
entire assembly.  
DO NOT work on high-voltage equipment unless you are a qualified  
electrician.  
DO NOT WORK ON electrical components, including control panels,  
switches, starters, or oil heater until you are sure ALL POWER IS OFF  
and no residual voltage can leak from capacitors or solid-state  
components.  
LOCK OPEN AND TAG electrical circuits during servicing. IF WORK  
IS INTERRUPTED, confirm that all circuits are deenergized before  
resuming work.  
AVOID SPILLING liquid refrigerant on skin or getting it into the eyes.  
USE SAFETY GOGGLES. Wash any spills from the skin with soap  
and water. If liquid refrigerant enters the eyes, IMMEDIATELY FLUSH  
EYES with water and consult a physician.  
NEVER APPLY an open flame or live steam to a refrigerant cylinder.  
Dangerous over pressure can result. When it is necessary to heat re-  
frigerant, use only warm (110 F [43 C]) water.  
BE AWARE that certain automatic start arrangements CAN ENGAGE  
THE STARTER, TOWER FAN OR PUMPS. Open the disconnectahead  
of the starter, tower fan, and pumps. Shut off the machine or pump  
before servicing equipment.  
USE only repaired or replacement parts that meet the code require-  
ments of the original equipment.  
DO NOT VENT OR DRAIN waterboxes containing industrial brines,  
liquid, gases, or semisolids without the permission of your process con-  
trol group.  
DO NOT LOOSEN waterbox cover bolts until the waterbox has been  
completely drained.  
DOUBLE-CHECK that coupling nut wrenches, dial indicators, or other  
items have been removed before rotating any shafts.  
DO NOT LOOSEN a packing gland nut before checking that the nut  
has a positive thread engagement.  
PERIODICALLY INSPECT all valves, fittings, and piping for corro-  
sion, rust, leaks, or damage.  
PROVIDE A DRAIN connection in the vent line near each pressure  
relief device to prevent a build-up of condensate or rain water.  
Manufacturer reserves the right to discontinue, or change at any time, specifications or designs without notice and without incurring obligations.  
Book 2 PC 211 Catalog No. 531-749 Printed in U.S.A. Form 17/19EX-2SI Pg 1 3-96 Replaces: 17/19EX-1SI  
Tab 5a 5d  
2
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NIH  
Nozzle-In-Head  
*Motors beginning with ‘‘E’’ and open drive motors (FA-JD) cannot be used with size 51-89 or 421-469 compressors.  
†Open-drive motor codes:  
ASME  
‘U’ STAMP  
UNDERWRITERS’  
LABORATORIES  
ARI (Air Conditioning  
and Refrigeration  
Institute)  
PERFORMANCE  
CERTIFIED  
(60 Hz Only)  
Fig. 1 — Model Number Identification  
3
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RIG MACHINE COMPONENTS — Refer to instructions  
on page 5, Fig. 6-8, and Carrier certified drawings for ma-  
chine component disassembly.  
Before rigging the compressor, disconnect the wires  
leading from the power panel to the control center at the  
power panel.  
IMPORTANT: Only a qualified service technician should  
disassemble and reassemble the machine. After reas-  
sembly, the machine must be dehydrated and leak tested.  
NOTE: Wiring for sensors must be disconnected. Label each  
wire before removal (see Carrier certified drawings).  
Detach all transducer and sensor wires at the sensor, then  
clip all wire ties necessary to remove the wires from the heat  
exchangers.  
When rigging components separately, the open drive  
(17EX) motor must be removed to avoid overturning.  
Do not attempt to disconnect flanges while the machine  
is under pressure. Failure to relieve pressure can result  
in personal injury or damage to the unit.  
19EX  
LEGEND  
1
Refrigerant Liquid Line to Economizer/  
Storage Vessel  
15  
16  
17  
18  
19  
20  
Motor Sight Glass (Not Shown)  
Oil Filter  
Oil Level Sight Glasses (2)  
Cooler Relief Valves (Not Shown)  
Oil Heater (Not Shown)  
Auxiliary Power Panel  
27  
28  
29  
30  
31  
32  
33  
Oil Cooler  
Isolation Valves (Not Shown)  
Refrigerant Filter Drier  
Local Interface Display Control Panel  
Economizer/Storage Vessel  
Rigging Guide (Not Shown)  
Economizer/Storage Vessel  
Relief Valves  
2
3
Cooler Suction Pipe  
Compressor Suction Elbow  
Condenser  
4
5
Condenser Discharge Pipe  
Compressor Discharge Elbow  
Guide Vane Actuator  
6
(Field Wiring Terminals)  
Pumpdown Unit (Not Shown)  
Low-Side Float Box Cover  
Refrigerant Liquid Line to Cooler  
Oil Drain and Charging Valve  
Oil Pump  
7
21  
22  
23  
24  
25  
26  
8
Economizer Gas Line to Compressor  
Gear Inspection Cover  
34  
35  
36  
37  
38  
39  
40  
Cooler  
9
High-Side Float Box Cover  
Take-Apart Connections  
Cooler Waterbox Vent  
Cooler Marine Waterbox  
Cooler Waterbox Drain  
Condenser Waterbox Drain  
10  
11  
12  
13  
14  
2-Stage Hermetic Compressor  
Condenser Waterbox Vent (Not Shown)  
Condenser Marine Waterbox  
Hermetic Compressor Motor  
Compressor Motor Terminal Box  
(Not Shown)  
Refrigerant Charging/Service  
Valve 10 (Not Shown)  
Fig. 2 — Typical 19EX Installation  
4
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COMPONENT DISASSEMBLY  
To Separate Compressor from the Machine  
7. Disconnect wiring to the control center and power panel.  
8. Connect rigging to the compressor.  
9. Unbolt compressor from the utility vessel (Fig. 7,  
Items 2, 4, and 5).  
1. Make sure to check that the machine is at atmospheric  
pressure before disassembly.  
10. Hoist the compressor off of the unit.  
2. Since the center of gravity is high on 17EX machines,  
the motor MUST be removed before rigging the  
machine.  
3. Suction elbow should be rigged separately (Fig. 6,  
Item 2). Place slings around the elbow and attach to the  
hoist. Remove bolting at flanges, (Fig. 6, Items 1 and 3).  
Detach the elbow.  
4. Unbolt discharge flange to the condenser at flange  
(Fig. 8, Item 3). Cut copper lines (Fig. 6, Items 7, 8,  
and 9).  
5. Disconnect and detach the economizer vent line  
(Fig. 8, Item 4). Unbolt the line at flange (Fig. 8,  
Item 2).  
11. If the compressor is to be transported or set down,  
the base should be bolted to sections of 4 in. x 6 in.  
lumber.  
To Separate Condenser from the Machine  
1. Unbolt flange (Fig. 6, Item 3).  
2. Unbolt flange (Fig. 6, Item 4).  
3. Cut copper pipe (Fig. 6, Item 7).  
4. Unbolt hot flange (Fig. 7, Item 1).  
5. Connect rigging to all corners of the condenser.  
6. Unbolt condenser feet (Fig. 8, Items 1 and 6).  
6. On 19EX machines, disconnect the motor cooling drain  
line at flange (Fig. 8, Item 5).  
LEGEND  
1
2
Condenser  
15  
16  
17  
18  
19  
20  
21  
Refrigerant Liquid Line to Cooler  
Power Panel (Field Wiring Terminals)  
Oil Level Sight Glasses  
Oil Drain and Charging Valve  
Oil Heater (Hidden)  
27  
28  
29  
30  
31  
32  
33  
34  
35  
36  
Pumpout Unit  
Cooler Suction Pipe  
High Side Float Box Cover  
Cooler  
3
Compressor Suction Elbow  
Guide Vane Actuator  
Condenser Discharge Pipe  
Oil Filter (Hidden)  
4
Cooler Waterbox Drain  
Take-Apart Connections (Typical)  
Cooler Marine Waterbox Cover  
Cooler Waterbox  
Cooler Waterbox Vent  
Condenser Waterbox Drain  
Refrigerant Liquid Line to  
Economizer/Storage Vessel  
Condenser Waterbox Vent  
5
6
Oil Pump  
7
Two-Stage Compressor  
Compressor Discharge Elbow  
Gear Inspection Cover  
Economizer Gas Line to Compressor  
Open Drive Compressor Motor  
Compressor Motor Terminal Box  
Coupling Guard  
Refrigerant Charging/Service Valve  
10 (Not Shown)  
Cooler Relief Valves (Not Shown)  
Economizer/Storage Vessel  
Oil Cooler  
Control Center  
Economizer/Storage Vessel  
Relief Valves  
8
9
22  
23  
24  
25  
26  
10  
11  
12  
13  
14  
37  
Low-Side Float Box Cover  
Fig. 3 — Typical 17EX Installation  
5
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NOTES:  
1. Each chain must be capable of supporting the maximum weight of the  
machine.  
2.  
= the approximate center of gravity.  
3. Maximum possible weight is 88,500 lb (40 166 kg) which includes a maxi-  
mum of 6,000 lb (2 721 kg) of HFC-134a refrigerant in the storage tank.  
17EX FRONT VIEW  
LIFTING  
VESSEL  
LENGTH  
MAXIMUM  
WEIGHT  
HEIGHT  
FROM FLOOR  
‘‘E’’  
CENTER OF GRAVITY  
CHAIN LENGTH  
APPROXIMATE LOCATION  
COOLER  
SIZE  
LIFTING  
ANGLE  
‘‘A’’  
ft-in.  
‘‘B’’  
ft-in. mm  
9-0 2743 16-1 4902 13-6 4115  
‘‘C’’  
‘‘D’’  
‘‘F’’  
ft-in.  
‘‘G’’  
‘‘H’’  
ft-in.  
ft-in.  
mm  
lb  
kg  
ft-in.  
mm  
mm  
ft-in. mm  
ft-in. mm  
mm  
ft-in.  
mm  
mm  
30°  
45°  
60°  
10-  
12-  
3
7
3124  
16-11  
5156  
6299  
8306  
45-48  
17-0 5182 88,550 40 166  
3835 11-7 3531 19-1 5817 16-9 5105  
20-  
27-  
8
3
4-1  
1245  
9-1  
2769  
4-9  
1448  
17-10 5436 17-1 5207 24-9 7544 22-8 6909  
Fig. 4 — 17EX Machine Rigging Guide  
NOTES:  
1. Each chain must be capable of supporting the maximum weight of the  
machine.  
2.  
= the approximate center of gravity.  
3. Maximum possible weight is 78,700 lb (35,698 kg) which includes a maxi-  
mum of 6,000 lb (2,268 kg) of HFC-134a in the storage tank.  
19EX FRONT VIEW  
LIFTING  
VESSEL  
LENGTH  
MAXIMUM  
WEIGHT  
HEIGHT  
FROM FLOOR  
‘‘E’’  
CENTER OF GRAVITY  
CHAIN LENGTH  
APPROXIMATE LOCATION  
COOLER  
SIZE  
LIFTING  
ANGLE  
‘‘A’’  
ft-in.  
‘‘B’’  
ft-in. mm  
7-2 1880 11-11 3632 11-1 3378  
‘‘C’’  
‘‘D’’  
‘‘F’’  
ft-in.  
‘‘G’’  
‘‘H’’  
ft-in.  
ft-in.  
mm  
lb  
kg  
ft-in.  
mm  
mm  
ft-in.  
mm  
ft-in. mm  
mm  
ft-in.  
mm  
mm  
30°  
45°  
60°  
30°  
45°  
60°  
30°  
45°  
60°  
7-2 1880  
8-9 2667  
13-7  
16-2  
20-9  
15-1  
17-5  
21-7  
16-4  
19-8  
25-5  
4140  
4928  
6325  
4597  
5309  
6579  
4978  
5994  
7747  
31-33  
41-44  
45-48  
12-3 3734 55,000 24 948  
12-3 3734 70,000 31 752  
17-0 5182 78,700 35 698  
8-9 2667 14-  
0
0
0
4267 13-4 4064  
5486 17-6 5334  
3962 12-2 3708  
3-10 1168  
6-1  
1854  
4-6  
4-8  
4-8  
1372  
12-5 3785 12-5 3785 18-  
6-7 2007  
8-0 2438  
6-9 2057 13-  
8-3 2515 14-11 4547 14-3 4343  
4-  
0
1219  
6-0  
8-3  
1829  
2515  
1422  
1422  
11-4 3454 11-6 3505 18-  
9-1 2769 9-6 2896 15-  
11-1 3378 11-6 3505 17-  
7
1
9
5664 18-0 5486  
4597 14-7 4445  
5410 17-4 5283  
3-10 1168  
15-9 4800 16-0 4877 22-10 6960 22-6 6858  
Fig. 5 — 19EX Machine Rigging Guide  
6
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NOTE: Item numbers are referenced in Rigging the Machine, Component Disassembly section.  
Fig. 6 — Typical Top View (19EX Shown)  
NOTE: Item numbers are referenced in Rigging the Machine, Component Disassembly section.  
Fig. 7 — Typical Side View (19EX Shown)  
7
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NOTE: Item numbers are referenced in Rigging the Machine, Component Disassembly section.  
Fig. 8 — Typical Motor End View (19EX Shown)  
To Separate Cooler From Utility Vessel  
2. All gasketed or O-ring joints which have been disas-  
sembled must be assembled using new gaskets and O-rings.  
These new gaskets and O-rings (along with gasket seal-  
ant, O-ring lubricant, and copper line couplings) are avail-  
able through your Carrier representative.  
1. Remove condenser (see previous section).  
2. Cut copper lines (Fig. 6, Items 6 and 8).  
3. Unbolt liquid refrigerant line at flange (Fig. 7, Item 3).  
4. Connect rigging to all four corners of the cooler before  
lifting the unit.  
5. Unbolt connections to the utility vessel (Fig. 6, Items 5  
and 10).  
3. Braze all copper lines back together using a suitable braz-  
ing material for copper. Carrier recommends an AWS  
(American Welding Society) Classification BCuP-2.  
To Assemble the Machine  
Do not tilt the compressor; oil is contained in the oil  
sump.  
1. Follow disassembly instructions (in reverse order) and bolt  
all flanges back together using a gasket sealant. The fol-  
lowing torque requirements are specified:  
Additional Notes  
1. Use silicon grease on new O-rings when refitting.  
2. Use gasket sealant on new gaskets when refitting.  
3. Cooler, utility, and condenser vessels may be rigged ver-  
tically, as separate components. Rigging should be fixed  
to all four corners of the tube sheet.  
4. New gaskets, grease for O-rings, and gasket sealant for a  
complete take-apart operation are available in a kit. Con-  
tact your Carrier representative.  
TORQUE  
FIG.  
6
ITEM NO.  
ft-lb  
580  
170  
840*  
380  
250  
280  
170  
380  
71  
N-m  
786  
230  
1139*  
515  
340  
380  
230  
515  
96  
3
1 or 4  
5 and 10  
1
7
4 and 5  
1 and 6  
2
3
5
8
N-m  
Newton Meters  
*This torque is used to rig the entire machine. Once the machine  
is in place, if no further rigging is anticipated, the bolt torque can  
be reduced to 280 ft-lb (380 N-m).  
8
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NOTES:  
1. Certified drawings available upon request.  
2. Service access should be provided per American Society of Heating, Refrigeration, and Air Con-  
ditioning Engineers (ASHRAE) 15, latest edition, National Fire Protection Association (NFPA)  
70, and local safety codes.  
DIMENSIONS  
A (LENGTH)†  
B (WIDTH)  
C (HEIGHT)  
H (TUBE PULL)  
CONDENSER  
SIZE  
17EX**  
ft-in. mm  
19EX  
ft-in.  
mm  
ft-in.  
mm  
3264  
3708  
ft-in.  
mm  
ft-in.  
mm  
31 - 33  
41 - 43  
45 - 47  
51 - 53  
55 - 57  
15-6  
15-6  
20-3  
15-6  
20-3  
4724  
4724  
6172  
4724  
6172  
N/A  
N/A  
N/A  
N/A  
8-10  
2692  
10-812  
12-2  
12-10  
12-10  
17- 6  
12-10  
17- 6  
3912  
3912  
5334  
3912  
5334  
12-2  
N/A  
3708  
N/A  
9-412  
2858  
12-5  
3785  
12-2  
3708  
SERVICE CLEARANCES  
E (LENGTH)††  
D (DIAMETER)††  
F (DIAMETER)  
G (LENGTH)  
COMPONENT  
ft-in.  
mm  
ft-in.  
3- 712  
3-1014  
4- 114  
mm  
1105  
1175  
1251  
ft-in.  
mm  
ft-in.  
mm  
Motor DB - DQ  
Motor EA - ED  
Motor EE  
1-1114  
591  
679  
2- 234  
Low-Side Float  
2-612  
775  
1-0  
305  
NOZZLE SIZES  
NOZZLE SIZES (in.)  
HEAT  
EXCHANGER  
NOZZLE TYPE  
Cooler Passes  
Condenser Passes  
1
2
3
1
2
3
Marine  
NIH  
12  
12  
20  
18  
10  
10  
14  
14  
10  
10  
12  
10  
12  
20  
18  
20  
10  
10  
14  
12  
16  
16  
10  
10  
12  
10  
31 - 33  
41 - 48  
51 - 57  
Marine  
NIH  
Marine  
NIH  
LEGEND  
Nozzle-In-Head  
*Distance required for tube removal may be either end.  
WALL THICKNESS  
NOMINAL PIPE SIZE (in.)  
SCHEDULE¶  
NIH  
in.  
mm  
9.27  
9.53  
9.53  
9.53  
9.53  
9.53  
10  
12  
14  
16  
18  
20  
40  
Std  
30  
.365  
.375  
.375  
.375  
.375  
.375  
†Based on 2-pass, nozzle-in-head (NIH) waterboxes with 150 psi (1038 kPa)  
covers.  
**Overall width of units with 17 Series compressors will vary greatly depend-  
ing upon the application. See the appropriate certified drawings.  
††For hermetic motors (19 Series) only.  
30  
The table at right provides additional information on nozzle sizes. Victaulic  
grooves are standard for these nozzles. Optional 150 psi (1034 kPa) and  
300 psi (2068 kPa) flanges are available.  
Std  
20  
¶In conformance with ASA B36.10 (American Standards Association).  
Fig. 9 — Typical Dimensions  
9
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Table 1 — 17/19EX Heat Exchanger, Economizer/Storage Vessel, Piping, and Pumpout Unit Weights*  
COOLER  
TOTAL  
WEIGHT  
ECONOMIZER/  
STORAGE  
VESSEL**  
COOLER  
CHARGE  
ECONOMIZER MISCELLANEOUS PUMPOUT  
REFRIGERANT PIPING UNIT  
COOLER  
SIZE†  
Dry  
Operating††  
lb kg  
Refrigerant  
lb kg  
Water  
lb  
kg  
lb  
kg  
lb  
kg  
lb  
kg  
lb  
kg  
lb  
gal  
kg  
L
31  
32  
33  
41  
42  
43  
44  
45  
46  
47  
48  
14,173  
14,538  
14,904  
21,674  
22,019  
6 429 17,518  
6 594 18,117  
6 760 18,722  
7 946 1,540  
8 218 1,640  
8 492 1,740  
699 1,810 217  
744 1,944 233  
789 2,078 249  
821  
882  
943  
821  
882 7,169  
943  
3252  
610  
277  
820  
372  
9 831 26,120 11 848 1,900  
9 988 26,736 12 127 2,000  
862 2,441 293 1 107 1 107  
907 2,575 309 1 168 1 168  
953 2,709 325 1 229 1 229  
993 3,285 394 1 490 1 490  
7,169  
7,900  
3 252  
3 583  
610  
840  
277  
381  
1,095  
497  
521  
22,364 10 144 27,322 12 393 2,100  
23,841 10 814 29,836 13 533 2,190  
210  
95  
25,032 11 354 30,790 13 966 2,260 1 025 3,006 361 1 363 1 363  
25,529 11 580 31,658 14 360 2,360 1 070 3,192 383 1 448 1 448  
26,025 11 805 32,496 14 740 2,460 1 116 3,378 405 1 532 1 532  
28,153 12 770 36,053 16 353 2,540 1 152 4,173 500 1 893 1 893  
1,149  
CONDENSER TOTAL WEIGHT  
CONDENSER  
CONDENSER CHARGE  
Refrigerant Water  
Dry  
Operating††  
SIZE†  
lb  
kg  
lb  
kg  
lb  
kg  
lb  
gal  
193  
210  
226  
257  
274  
290  
326  
348  
371  
325  
355  
381  
412  
457  
492  
kg  
L
31  
32  
33  
41  
42  
43  
45  
46  
47  
51  
52  
53  
55  
56  
57  
10,454  
10,809  
11,164  
13,768  
14,118  
14,468  
16,676  
17,172  
17,669  
17,188  
17,848  
18,400  
20,725  
21,663  
22,446  
4 742  
4 903  
5 064  
6 245  
6 404  
6 563  
7 564  
7 789  
8 015  
7 796  
8 096  
8 346  
9 401  
9 826  
10 181  
13,022  
13,514  
14,000  
16,999  
17,498  
17,978  
20,800  
21,489  
22,178  
20,993  
21,923  
22,682  
25,598  
26,896  
27,980  
5 907  
6 130  
6 350  
7 711  
7 937  
8 155  
9 435  
9 747  
10 060  
9 522  
9 944  
10 288  
11 611  
12 199  
12 691  
950  
431  
431  
431  
494  
494  
494  
635  
635  
635  
499  
499  
499  
644  
644  
644  
1,613  
1,750  
1,886  
2,146  
2,282  
2,419  
2,720  
2,908  
3,096  
2,707  
2,964  
3,178  
3,453  
3,808  
4,105  
732  
732  
794  
950  
794  
950  
855  
855  
1,090  
1,090  
1,090  
1,400  
1,400  
1,400  
1,100  
1,100  
1,100  
1,420  
1,420  
1,420  
973  
973  
1 035  
1 097  
1 234  
1 319  
1 404  
1 228  
1 344  
1 442  
1 566  
1 727  
1 862  
1 035  
1 097  
1 234  
1 319  
1 404  
1 228  
1 344  
1 442  
1 566  
1 727  
1 862  
*If a machine configuration other than 2-pass, 150 psig (1034 kPa), NIH waterbox configuration is used, refer to Tables 3  
and 4 to obtain the additional dry and water weights that must be added to the values shown in this table.  
†Cooler and condenser weights shown are based upon 2-pass, nozzle-in-head (NIH) waterboxes with 150 psig (1034 kPa)  
covers. Includes components attached to cooler, but does not include suction/discharge, elbow, or other interconnecting  
piping.  
**Dry weight includes all components attached to economizer: Covers, float valves, brackets, control center (31 lb [14 kg]),  
and power panel (20 lb [9 kg]). Dry weight does not include compressor weight, motor weight, or pumpout condensing unit  
weight. The pumpout condensing unit weight is 210 lb (95 kg). For compressor and motor weights, refer to Tables 6, 7, 8,  
10A, and 10B.  
††Operating weight includes the sum of the dry weight, refrigerant weight, and water weight.  
Table 2 — Refrigerant Charge  
TOTAL REFRIGERANT  
CHARGE*  
HEAT EXCHANGER SIZE  
COOLER CHARGE  
CONDENSER CHARGE  
ECONOMIZER CHARGE  
Cooler  
31  
Condenser  
lb  
kg  
699  
lb  
kg  
lb  
kg  
lb  
kg  
31  
32  
33  
41  
42  
43  
51  
52  
53  
45  
46  
47  
55  
56  
57  
1540  
1640  
1740  
1900  
2000  
2100  
2190  
2190  
2190  
2260  
2360  
2460  
2540  
2540  
2540  
950  
431  
431  
431  
494  
494  
494  
499  
499  
499  
635  
635  
635  
644  
644  
644  
3100  
3200  
3300  
3600  
3700  
3800  
3900  
3900  
3900  
4500  
4600  
4700  
4800  
4800  
4800  
1 406  
1 452  
1 497  
1 633  
1 678  
1 724  
1 769  
1 769  
1 769  
2 041  
2 087  
2 132  
2 177  
2 177  
2 177  
32  
744  
950  
33  
789  
950  
41  
862  
1090  
1090  
1090  
1100  
1100  
1100  
1400  
1400  
1400  
1420  
1420  
1420  
42  
907  
610  
277  
43  
953  
44  
993  
44  
993  
44  
993  
45  
1 025  
1 070  
1 116  
1 152  
1 152  
1 152  
46  
47  
844  
381  
48  
48  
48  
*Total machine refrigerant charge includes the cooler, condenser, and economizer.  
NOTE: Regulations mandate that machine shipping charge is limited to 7500 lb (3402 kg).  
10  
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Table 3 — Additional Cooler Weights*  
DESIGN MAXIMUM  
WATER PRESSURE  
ADDITIONAL  
DRY WEIGHT  
ADDITIONAL  
WATER WEIGHT  
COOLER  
FRAME  
WATERBOX  
TYPE  
NUMBER  
OF PASSES  
psig  
150  
300  
300  
150  
150  
300  
300  
150  
300  
300  
150  
150  
300  
300  
kPa  
lb  
kg  
lb  
gal  
kg  
L
NIH  
NIH  
1, 3  
1, 3  
2
1034  
2068  
2068  
1034  
1034  
2068  
2068  
1034  
2068  
2068  
1034  
1034  
2068  
2068  
655  
2226  
1406  
780  
297  
1010  
638  
NIH  
3
4
Marine  
Marine  
Marine  
Marine  
NIH  
1, 3  
2
354  
3192  
1596  
3192  
1596  
383  
191  
383  
191  
1448  
724  
1448  
724  
1448  
724  
1448  
724  
390  
177  
1, 3  
2
3412  
1706  
515  
1548  
774  
1, 3  
1, 3  
2
234  
NIH  
2941  
2085  
2100  
792  
1334  
946  
NIH  
Marine  
Marine  
Marine  
Marine  
1, 3  
2
953  
5102  
2551  
5102  
2551  
612  
306  
612  
306  
2314  
1157  
2314  
1157  
2314  
1157  
2314  
1157  
359  
1, 3  
2
3844  
2536  
1744  
1150  
NIH  
Nozzle-In-Head  
*When using a machine configuration other than 2-pass, NIH waterboxes with 150 psig (1038 kPa) covers, add the weights listed in this table to the appropriate weights  
in Table 1 to obtain the correct cooler weight.  
Table 4 — Additional Condenser Weights*  
DESIGN MAXIMUM  
WATER PRESSURE  
ADDITIONAL  
DRY WEIGHT  
ADDITIONAL  
HEAT EXCHANGER  
SIZE  
NUMBER OF  
PASSES  
WATER WEIGHT  
COMPONENT  
WATERBOX TYPE  
psig  
150  
300  
300  
150  
150  
300  
300  
150  
300  
300  
150  
150  
300  
300  
150  
300  
300  
150  
300  
kPa  
lb  
kg  
119  
602  
396  
382  
191  
689  
498  
156  
749  
513  
767  
306  
1202  
739  
lb  
gal  
kg  
L
NIH  
NIH  
3
3
1034  
2068  
2068  
1034  
1034  
2068  
2068  
1034  
2068  
2068  
1034  
1034  
2068  
2068  
1034  
2068  
2068  
1034  
2068  
262  
1328  
872  
NIH  
2
31 - 33  
Marine  
Marine  
Marine  
Marine  
NIH  
3
842  
2276  
1138  
2276  
1138  
273  
136  
273  
136  
1032  
516  
1032  
516  
1032  
516  
1032  
516  
2
421  
3
1520  
1099  
344  
2
1, 3  
1, 3  
2
NIH  
1652  
1132  
1692  
674  
CONDENSER  
NIH  
41 - 43  
45 - 47  
Marine  
Marine  
Marine  
Marine  
NIH  
1, 3  
2
3400  
1700  
3400  
1700  
408  
204  
408  
204  
1542  
771  
1542  
771  
1542  
771  
1542  
771  
1, 3  
2
2651  
1630  
1
NIH  
1
1588  
1591  
25  
720  
721  
11  
51 - 53  
55 - 57  
NIH  
2
Marine  
Marine  
2
1734  
1734  
208  
208  
787  
787  
787  
787  
2
1225  
555  
NIH  
Nozzle-In-Head  
*When using a machine configuration other than 2-pass, NIH waterboxes with 150 psig (1034 kPa) covers, add the weights listed in this table to the appropriate weights  
in Table 1 to obtain the correct condenser weight.  
†Subtract 228 lb (103 kg) from the weight shown in Table 1.  
Table 5 — Auxiliary Connection Sizes  
SIZE AND STYLE  
USAGE  
Pumpout Condenser Refrigerant Vapor Connection  
(Rupture Disc)  
3
8  
in. Male Flare  
Pumpout Water Inlet Connection  
Pumpout Water Outlet Connection  
Power Panel Oil Pump Power Connection  
Waterbox Vent Connection  
1
1
2
2
in. FPT  
in. NPT Conduit  
1 in. NPT  
114 in. FPT  
Waterbox Drain Connection  
Cooler Relief Valve Connection  
Economizer/Storage Vessel Connection  
11  
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Table 6 — Total 19EX Motor Weights (60 Hz)  
Table 7 — Total 19EX Motor Weights (50 Hz)  
LOW VOLTAGE MEDIUM VOLTAGE HIGH VOLTAGE  
MOTOR SIZE  
LOW VOLTAGE MEDIUM VOLTAGE HIGH VOLTAGE  
MOTOR SIZE  
lb  
kg  
673  
lb  
kg  
lb  
kg  
lb  
kg  
lb  
kg  
lb  
kg  
DB  
DC  
DD  
DE  
DF  
DG  
DH  
DJ  
1484  
1496  
1514  
1620  
1657  
1662  
1749  
1790  
1823  
2262  
2337  
2415  
2456  
NA  
1420  
1478  
1503  
1536  
1635  
1677  
1715  
1758  
2267  
2374  
2501  
2558  
2688  
2721  
2031  
2233  
2358  
2514  
2989  
644  
NA  
NA  
DB  
DC  
DD  
DE  
DF  
DG  
DH  
DJ  
1662  
1677  
1696  
1710  
1792  
1863  
1921  
2222  
2331  
2373  
2481  
2555  
2597  
NA  
754  
1568  
1628  
1662  
1707  
1807  
2212  
2283  
2340  
2472  
2624  
2692  
2864  
2924  
3014  
2392  
2380  
2747  
2952  
3161  
711  
NA  
NA  
678  
670  
NA  
NA  
760  
740  
NA  
NA  
687  
682  
2097  
2152  
2656  
2741  
2806  
2876  
3054  
3162  
3222  
3277  
3402  
3467  
2377  
2427  
2602  
2827  
3258  
951  
769  
754  
2312  
2332  
2386  
2947  
3022  
3097  
3187  
3257  
3317  
3407  
3502  
3612  
2682  
2887  
3257  
3442  
3533  
1049  
1058  
1082  
1337  
1371  
1405  
1446  
1477  
1505  
1545  
1588  
1638  
1217  
1310  
1477  
1561  
1603  
728  
696  
976  
776  
775  
752  
742  
1205  
1243  
1273  
1305  
1385  
1434  
1461  
1486  
1543  
1573  
1078  
1101  
1180  
1282  
1478  
813  
820  
754  
761  
845  
1003  
1036  
1061  
1121  
1190  
1221  
1299  
1326  
1367  
1085  
1080  
1246  
1339  
1434  
793  
778  
871  
812  
797  
1008  
1057  
1076  
1125  
1159  
1178  
NA  
DK  
DL  
DM  
DN  
DP  
DQ  
EA  
EB  
EC  
ED  
EE  
827  
1028  
1077  
1134  
1160  
1219  
1234  
921  
DK  
DL  
DM  
DN  
DP  
DQ  
EA  
EB  
EC  
ED  
EE  
1026  
1060  
1095  
1114  
NA  
1968  
2128  
2241  
2366  
2664  
893  
2232  
2443  
2646  
2760  
3009  
1012  
1108  
1200  
1252  
1365  
965  
1013  
1070  
1140  
1356  
1017  
1073  
1208  
NA  
Not Available  
NA  
Not Available  
NOTE: Low-voltage motors are rated below 600 v, medium-voltage motors range  
from 600 v to 6,000 v, and high-voltage motors are rated above 6,000 v.  
NOTE: Low-voltage motors are rated below 600 v, medium-voltage motors range  
from 600 v to 6,000 v, and high-voltage motors are rated above 6,000 v.  
Table 8 — Compressor Weights  
19EX COMPRESSOR  
17/19FA5 COMPRESSOR  
19FA4  
COMPONENT  
lb  
kg  
lb  
kg  
lbs  
kg  
Compressor  
Weight*  
4886  
2216  
5150  
2336  
2625  
1191  
Suction  
Elbow  
500  
227  
500  
227  
325  
147  
*Weight does not include motor.  
NOTES:  
1. 19EX compressors include sizes −51 through −89.  
2. 17/19FA5 compressors include sizes 531 through 599.  
3. 19FA4 compressors include sizes 421 through 469.  
Table 9 — Total 17EX Drive Component Weights  
MOTOR  
HORSEPOWER (kW)  
CODE  
BASE WEIGHT  
COUPLING WEIGHT  
GUARD WEIGHT  
lb  
kg  
lb  
kg  
lb  
kg  
A
B
C
D
1200  
1200  
1200  
1100  
544  
544  
544  
499  
75  
75  
75  
75  
34  
34  
34  
34  
25  
25  
25  
25  
11  
11  
11  
11  
12  
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Table 10A — 17EX Motors — Total Weight, Lbs (English)  
ENCLOSURE  
TYPE  
HERTZ  
VOLTAGE  
SIZE (HP)  
FA (1250)  
FB (1500)  
FC (1750)  
FD (2000)  
2400  
3300  
4160  
6900  
4836  
4824  
4836  
5596  
5721  
5832  
5721  
6577  
5900  
5832  
5900  
8776  
7160  
7127  
7160  
8990  
60 Hz  
Open-Drip Proof  
(ODP)  
3000  
3300  
6300  
5518  
5518  
5596  
5878  
5878  
6577  
7148  
7148  
8875  
9048  
9073  
8976  
50 Hz  
60 Hz  
50 Hz  
60 Hz  
50Hz  
GA (1350)  
GB (1500)  
GC (1750)  
GD (2000)  
2400  
3300  
4160  
6900  
5046  
5034  
5046  
5806  
5871  
5982  
5871  
6727  
6050  
5982  
6050  
8926  
7270  
7237  
7270  
9100  
Weather Protected  
Type I (WPI)  
3000  
3300  
6300  
5728  
5728  
5806  
6028  
6028  
6727  
7298  
7298  
9025  
9158  
9183  
9086  
HA (1250)  
HB (1500)  
HC (1750)  
HD (2000)  
2400  
3300  
4160  
6900  
5146  
5134  
5146  
5906  
6151  
6262  
6151  
7007  
6330  
6262  
6330  
9206  
7600  
7567  
7600  
9430  
Weater Protected  
Type II (WPII)  
3000  
3300  
6300  
5828  
5828  
5906  
6308  
6308  
7007  
7578  
7578  
9305  
9488  
9513  
9416  
JA (1250)  
JB (1500)  
JC (1750)  
JD (2000)  
2400  
3300  
4160  
6900  
5707  
5694  
5707  
6466  
6746  
6857  
6746  
7602  
6925  
6857  
6925  
9801  
8290  
8257  
60 Hz  
50 Hz  
Totally Enclosed  
Water-To-Air Cooled  
(TEWAC)  
8290  
10,120  
3000  
3300  
6300  
6388  
6388  
6466  
6903  
6903  
7602  
8173  
8173  
9900  
10,178  
10,203  
10,106  
Table 10B — 17EX Motors — Total Weight, Kg (SI)  
ENCLOSURE  
TYPE  
FREQ  
VOLTAGE  
SIZE (kW)  
FA (932)  
FB (1119)  
FC (1305)  
FD (1492)  
2400  
3300  
4160  
6900  
2194  
2188  
2194  
2538  
2595  
2645  
2595  
2983  
2676  
2645  
2676  
3981  
3248  
3233  
3248  
4033  
60 Hz  
50 Hz  
60 Hz  
50 Hz  
60 Hz  
50 Hz  
60 Hz  
50 Hz  
Open-Drip Proof  
(ODP)  
3000  
3300  
6300  
2503  
2503  
2538  
2666  
2666  
2983  
3242  
3242  
4026  
4104  
4116  
4072  
GA (932)  
GB (1119)  
GC (1305)  
GD (1492)  
2400  
3300  
4160  
6900  
2289  
2283  
2289  
2634  
2663  
2713  
2663  
3051  
2744  
2713  
2744  
4049  
3298  
3283  
3298  
4128  
Weather Protected  
Type I (WPI)  
3000  
3300  
6300  
2598  
2598  
2634  
2734  
2734  
3051  
3310  
3310  
4094  
4154  
4165  
4121  
HA (932)  
HB (1119)  
HC (1305)  
HD (1492)  
2400  
3300  
4160  
6900  
2334  
2329  
2334  
2679  
2790  
2840  
2790  
3178  
2871  
2840  
2871  
4126  
3447  
3432  
3447  
4277  
Weather Protected  
Type II (WPII)  
3000  
3300  
6300  
2644  
2644  
2679  
2861  
2861  
3178  
3437  
3437  
4221  
4304  
4315  
4271  
JA (932)  
JB (1119)  
JC (1305)  
JD (1492)  
2400  
3300  
4160  
6900  
2587  
2583  
2587  
2933  
3060  
3110  
3060  
3448  
3141  
3110  
3141  
4446  
3760  
3745  
3760  
4590  
Totally Enclosed  
Water-To-Air Cooled  
(TEWAC)  
3000  
3300  
6300  
2898  
2898  
2933  
3131  
3131  
3448  
3707  
3707  
4490  
4617  
4628  
4584  
13  
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Table 11 — Marine Waterbox Cover Weights*  
DESIGN MAXIMUM WATER PRESSURE  
COOLER  
CONDENSER  
HEAT EXCHANGER  
SIZE  
psi  
150  
300  
150  
300  
150  
300  
kPa  
1034  
2068  
1034  
2068  
1034  
2068  
lb  
kg  
756  
1034  
1015  
1389  
lb  
kg  
495  
651  
579  
754  
746  
1018  
1667  
2280  
2236  
3060  
1092  
1436  
1275  
1660  
1643  
2243  
31 - 33  
41 - 48  
51 - 57  
*Heat exchangers with marine waterboxes have heavier dry and operating weights than heat exchangers with nozzle-  
in-head waterboxes.  
Table 12 — NIH Waterbox Cover Weights*  
DESIGN MAXIMUM WATER PRESSURE  
COOLER  
CONDENSER  
HEAT EXCHANGER  
SIZE  
PASSES  
psi  
150  
300  
150  
300  
150  
300  
150  
300  
150  
300  
150  
300  
150  
300  
150  
300  
150  
300  
kPa  
lb  
kg  
lb  
kg  
1034  
2068  
1034  
2068  
1034  
2068  
1034  
2068  
1034  
2068  
1034  
2068  
1034  
2068  
1034  
2068  
1034  
2068  
1880  
853  
1
2
2748 1247  
2168 983  
3107 1409  
2105 955  
1356  
1959  
1283  
1828  
1735  
2510  
1885  
2590  
1777  
2539  
2032  
2940  
2649  
3640  
615  
889  
582  
829  
788  
1140  
856  
1176  
807  
1153  
923  
1335  
1203  
1653  
31 - 33  
41 - 48  
51 - 57  
3
2991 1357  
2997 1361  
4225 1918  
2984 1355  
4188 1901  
3035 1378  
4244 1927  
1
2†  
3
1
2†  
3
NIH  
Nozzle-in-Head  
*The 150 psig (1034 kPa) 2-pass waterbox cover weights are included in the dry weight shown in Table 1.  
†Two different waterbox covers are present on 2-pass machines. The weight shown in this table represents the weight  
of the waterbox cover that contains the nozzles. A blank waterbox cover is also present on 2-pass units. The weight  
of the blank waterbox cover is identical to the weight of the same size marine waterbox cover. Refer to Table 11.  
3. Grout must extend above the base of the soleplate and  
Install Machine Supports  
there must be no voids in grout beneath the plates.  
INSTALL STANDARD ISOLATION — Figures 10 and 11  
show the position of support plates and shear flex pads, which  
together form the standard machine support system.  
4. Allow grout to set and harden, per manufacturer’s in-  
structions, before starting machine.  
5. Remove jacking screws from leveling pads after grout has  
hardened.  
INSTALL OPTIONAL ISOLATION (if required) — Un-  
even floors or other considerations may dictate the use of  
soleplates and leveling pads. Refer to Fig. 10 and 11.  
Level machine by using jacking screws in isolation sole-  
plates. Use a level at least 24 in. (600 mm) long.  
For adequate and long lasting machine support, proper grout  
selection and placement is essential. Carrier recommends that  
only pre-mixed, epoxy-type, non-shrinking grout be used for  
machine installation. Follow manufacturer’s instructions in  
applying grout.  
1. Check machine location prints for required grout  
thickness.  
INSTALL SPRING ISOLATION — Field-supplied spring  
isolators may be placed directly under machine support plates  
or be located under machine soleplates. Consult job data for  
specific arrangement. Low profile spring isolation assem-  
blies are recommended so that the machine is kept at a con-  
venient working height inside of the tube sheet.  
Obtain specific details on spring mounting and machine  
weight distribution from job data. Also, check job data for  
methods for supporting and isolating pipes that are attached  
to the spring-isolated machines.  
2. Carefully wax jacking screws for easy removal from grout.  
14  
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COOLER SIZES 31-33 AND 41-44  
DIMENSIONS  
COOLER SIZES  
A
B
C
ft-in.  
8-812  
9-3  
mm  
2654  
2819  
ft-in.  
8-10  
9- 412  
mm  
2692  
2858  
ft-in.  
4- 8  
4-1114  
mm  
1422  
1505  
31-33  
41-44  
COOLER SIZES 45-48  
NOTES:  
1. Dimensions in ( ) are in mm.  
2. 1 inch = 25.4 mm.  
3. All dimensions approximately ±  
1
2
inch.  
Fig. 10 — Machine Contact Surfaces  
15  
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SOLEPLATE ISOLATION  
TYPICAL ISOLATION  
ACCESSORY ISOLATION  
SOLEPLATE DETAIL  
SECTION A-A  
NOTES:  
1. Dimensions in ( ) are in millimeters.  
2. Accessory soleplate package includes 4 soleplates, 16 jacking screws and leveling pads. Requires  
isolation package.  
3. Jacking screws to be removed after grout has set.  
4. Thickness of grout will vary, depending on the amount necessary to level chiller. Use only pre-mixed  
non-shrinking grout, Celcote HT-648 or Master Builders 636, 0Ј-112Љ (38.1) to 0Ј-214Љ (57) thick.  
STANDARD ISOLATION  
VIEW B-B  
ISOLATION WITH ISOLATION PACKAGE ONLY  
(STANDARD)  
NOTE: Isolation package includes 4 shear flex pads.  
Fig. 11 — Machine Vibration Isolation  
16  
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10 pipe diameters from the waterbox nozzle. For thor-  
ough mixing and temperature stabilization, wells in the  
leaving water pipe should extend inside pipe at least  
2 in. (50 mm).  
Connect Piping  
INSTALL WATER PIPING TO HEAT EXCHANGERS —  
Install piping using job data, piping drawings, and proce-  
dure outlined below. A typical piping installation is shown  
in Fig. 12.  
3. Install air vents at all high points in piping to remove air  
and prevent water hammer.  
4. Install pipe hangers where needed. Make sure no weight  
or stress is placed on waterbox nozzles or flanges.  
5. Water flow direction must be as specified in Fig. 13.  
Factory-supplied insulation is not flammable but can be  
damaged by welding sparks and open flame. Protect in-  
sulation with a wet canvas cover.  
NOTE: Entering water is always the lower of the 2 nozzles.  
Leaving water is always the upper nozzle for cooler or  
condenser.  
6. Water flow switches must be of vapor-tight construction  
and must be installed on top of pipe in a horizontal run  
and at least 5 pipe diameters from any bend.  
Remove chilled and condenser water sensors before  
welding connecting piping to water nozzles. Refer to  
Fig. 2 and 3. Replace sensors after welding is complete.  
Differential pressure type flow switches may be con-  
nected at the nozzle of the waterbox.  
1. If the machine is a nozzle-in-head (NIH) arrangement,  
offset pipe flanges to permit removal of waterbox cover  
for maintenance and to provide clearance for pipe clean-  
ing. See Tables 11 and 12 for waterbox cover weights.  
No flanges are necessary with marine waterboxes; how-  
ever, water piping should not cross in front of the water-  
box or access will be blocked off.  
7. Install waterbox vent and drain piping in accordance with  
3
individual job data. All connections are 4-in. FPT.  
8. Install waterbox drain plugs in the unused waterbox drains  
and vent openings.  
9. Install water piping to the optional pumpout system con-  
denser storage tank as shown in Fig. 14.  
2. Provide openings in water piping for required pressure  
gages and thermometers. Openings should be at least 6 to  
LEGEND  
COM  
N.O.  
Common  
Normally Open  
*Do not locate pressure connections past the machine isolation valve.  
Fig. 12 — Typical Nozzle Piping  
17  
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NOZZLE-IN-HEAD WATERBOXES  
COOLER WATERBOX  
Arr.  
Pass  
1
In  
Out  
Code  
8
5
7
4
7
4
5
8
9
6
6
9
A
B
C
D
E
F
2
3
CONDENSER WATERBOX  
Arr.  
Pass  
1
In  
Out  
Code  
11  
2
2
11  
12  
3
P
Q
R
S
T
10  
1
2
10  
1
3
3
12  
U
NOTES:  
1. Frame 5 condenser available in 1 and 2  
pass only. Frame 3 in 2 and 3 pass only.  
2. The vents for these waterboxes, located  
in the covers are 1 in. FPT at the top of  
each box, and the drains are 1 in. FPT, at  
the bottom.  
3. Victaulic connections are standard.  
4. Flanged waterbox connections are  
optional.  
FRAME 3 AND 5 MARINE WATERBOXES  
COOLER WATERBOX  
Arr.  
Pass  
1
In  
Out  
Code  
8
5
5
8
A
B
C
D
G
E
F
7
9
2
3
4
6
16  
7
17  
6
4
9
CONDENSER WATERBOX  
Arr.  
Pass  
2
In  
Out  
Code  
10  
1
12  
3
R
S
Y
T
13  
10  
1
15  
3
3
12  
U
NOTES:  
1. Frame 3 condenser available in 2 and 3  
pass only. Frame 5 condenser available in  
2 pass only.  
2. The vents for these waterboxes are  
1 in. FPT at the top of each box, and the  
drains are 1 in. FPT, at the bottom.  
3. Victaulic connections are standard.  
4. Flanged waterbox connections are  
optional.  
Fig. 13 — Nozzle Arrangements  
18  
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FRAME 4 MARINE WATERBOXES  
COOLER WATERBOX  
Arr.  
Pass  
1
In  
Out  
Code  
8
5
5
8
A
B
C
D
G
E
F
7
9
2
3
4
6
16  
7
17  
6
4
9
CONDENSER WATERBOX  
Arr.  
Pass  
1
In  
Out  
Code  
11  
2
2
11  
12  
3
P
Q
R
S
Y
T
10  
1
2
3
13  
10  
1
15  
3
12  
U
NOTES:  
1. The vents for these waterboxes are 1 in. FPT at the top of each box. The  
drains are 1 in. FPT, at the bottom.  
2. Victaulic connections are standard.  
3. Flanged connections are optional.  
Fig. 13 — Nozzle Arrangements (cont)  
City water must be clean and noncorrosive. Water side  
erosion or corrosion of the oil cooler coil may lead to  
extensive machine damage not covered by the standard  
warranty.  
If water from the machine chilled water circuit is used for  
oil cooling, it should enter the oil cooler from the entering  
water line of the machine cooler. Water leaving the oil cooler  
should connect to the leaving water line of the machine cooler  
at a point downstream from the chilled water sensor, so that  
oil cooler leaving water temperature does not affect the sen-  
sor readings.  
Locate the oil cooler leaving water connection at some  
distance from any water temperature indicators. On single-  
pass machines, water leaving the oil cooler should be con-  
nected into the suction side of the chilled water pump so that  
adequate pressure drop is assured for oil cooling.  
The nominal conditions for oil cooler water flow are:  
Flow rate . . . . . . . . . . . . . . . . . . . . . . . 30 gpm (1.9 L/s)  
Leaving temperature . . . . . . . . 85 to 100 F (29 to 38 C)  
Pressure drop at oil cooler . . . . . . . 7.25 psid (50 kPad)  
Max differential pressure across closed  
Fig. 14 — Pumpout Unit  
solenoid valve . . . . . . . . . . . . . . 150 psid (1034 kPad)  
The oil cooler connections are 114 in. FPT.  
INSTALL WATER TO OIL COOLER ON FA COMPRE-  
SORS — On FA compressors, water must be piped to the oil  
cooler heat exchanger (located under the suction pipe to the  
compressor). The water supply may be either city water or  
chilled water. Pipe city water to an open sight drain. Chilled  
water enters via the cooling entering water intake (Fig. 15).  
19  
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Fig. 16 — Typical 17/19EX Utility Vessel  
Relief Valve Tee  
Fig. 15 — Water Piping, Oil Cooler to  
Chilled Water Circuit (Typical)  
Do not run 120-v wiring into the control center. The  
control center should only be used for additional extra  
low-voltage wiring (50 v maximum).  
INSTALL VENT PIPING TO RELIEF DEVICES — The  
17/19EX chiller is factory equipped with relief devices on  
the cooler and utility vessels. Refer to Fig. 2 and 3, and  
Table 13 for size and location of relief devices, as well as  
information that will help determine pipe size. Vent relief  
devices to the outdoors in accordance with ASHRAE 15  
(latest edition) Safety Code for Mechanical Refrigeration and  
all other applicable codes. To ensure relief valve serviceabil-  
ity, and as required in ASHRAE 15, latest edition, 3-way  
dual shutoff valves and redundant relief valves are installed  
on the economizer/storage vessel, refer to Fig. 16.  
Wiring diagrams in this publication (Fig. 17-23) are for  
reference only and are not intended for use during actual in-  
stallation; follow job specific wiring diagrams.  
Specific electrical ratings for individual components are  
shown in Table 14.  
Do not attempt to start compressor or oil pump — even  
for a rotation check — or apply test voltage of any kind  
while machine is under dehydration vacuum. Motor in-  
sulation breakdown and serious damage may result.  
NOTE: The 3-way dual shutoff valve should be either front  
seated or back seated. Running the refrigeration system with  
the valve stem in the center position can reduce total relief  
capacity and cause valve chattering.  
CONNECT CONTROL INPUTS — Connect the control in-  
put wiring from the chilled and condenser water flow switches  
to the starter terminal strip. Wiring may also be specified for  
a spare safety switch, and a remote start/stop contact can be  
wired to the starter terminal strip, as shown in Fig. 17 and  
18. Additional spare sensors and Carrier Comfort Network  
modules may be specified as well. These are wired to the  
machine control center as indicated in Fig. 22 and 23.  
Refrigerant discharged into confined spaces can dis-  
place oxygen and cause asphyxiation.  
1. If relief device piping is manifolded, the cross-sectional  
area of the relief pipe must at least equal the sum of the  
areas required for individual relief pipes.  
2. Provide a pipe plug near outlet side of each relief device  
for leak testing. Provide pipe fittings that allow vent pip-  
ing to be disconnected periodically for inspection of valve  
mechanism.  
CONNECT CONTROL OUTPUTS — Connect auxiliary  
equipment, chilled and condenser water pumps, and spare  
alarms as required and indicated on job wiring drawings.  
Connect Starter — Assemble and install compressor termi-  
nal box in desired orientation, and cut necessary conduit open-  
ings in conduit support plates. Attach power leads to com-  
pressor terminals in accordance with job wiring drawings,  
observing caution label in terminal box. Use only copper con-  
ductors. The motor must be grounded in accordance with  
NEC (National Electrical Code), applicable local codes, and  
job wiring diagrams.  
3. Piping to relief devices must not apply stress to the  
device. Adequately support piping. A length of flexible  
tubing or piping near the device is essential on spring-  
isolated machines.  
4. Cover the outdoor vent with a rain cap and place a con-  
densation drain at the low point in the vent piping to pre-  
vent water build-up on the atmospheric side of the relief  
device.  
IMPORTANT: Do not insulate terminals until wiring  
arrangement has been checked and approved by  
Carrier start-up personnel. Also, make sure correct phas-  
ing is followed for proper motor rotation.  
Make Electrical Connections — Field wiring must  
be installed in accordance with job wiring diagrams and all  
applicable electrical codes.  
20  
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Insulate Motor Terminals and Lead Wire Ends — Insulate  
compressor motor terminals, lead wire ends, and electrical  
wires to prevent moisture condensation and electrical arc-  
ing. For low-voltage units (up to 600 v), insulate the elec-  
trical terminals as follows:  
Connect Power Wires to Oil Heater Contactor — Connect  
control power wiring between the oil heater contactor ter-  
minals (Fig. 17 and 18) and terminals LL1 and LL2 on the  
field wiring strip in the compressor motor starter. Refer to  
Fig. 21 and wiring label on the chiller power panel.  
1. Insulate each terminal by wrapping with one layer of  
insulation putty.  
2. Overwrap putty with 4 layers of vinyl tape.  
High-voltage units require special terminal preparation. The  
vinyl tape is not acceptable; a high voltage tape must be used.  
Installer is responsible for any damage caused by improper  
wiring between starter and compressor motor.  
Voltage to terminals LL1 and LL2 comes from a con-  
trol transformer in a starter built to Carrier specifica-  
tions. Do not connect an outside source of control power  
to the compressor motor starter (terminals LL1 and LL2).  
An outside power source will produce dangerous volt-  
age at the line side of the starter, because supplying volt-  
age at the transformer secondary terminals produces in-  
put level voltage at the transformer primary terminals.  
Connect Power Wires to Oil Pump Contactor — Connect power  
wires to oil pump contactor mounted in machine power panel.  
(See Fig. 19.) Use the electrical disconnect located in the  
machine starter (if supplied), or a separate fused disconnect  
as shown on job wiring diagrams. Check that power supply  
voltage agrees with oil pump voltage. Follow correct phas-  
ing for proper motor rotation.  
Connect Communication and Control Wiring from Starter to  
Power Panel — Connect control wiring from main motor starter  
to the chiller power panel. All control wiring must use shielded  
cable. Also connect the communications cable. Make sure  
the control circuit is grounded in accordance with applicable  
electrical codes and instructions on chiller control wiring  
label.  
Do not wire into the top surface of the power panel. Knock-  
outs are provided on the underside of the panel.  
Table 13 — Relief Valve Locations and Data  
HEAT EXCHANGER  
SIZE  
RATED RELIEF  
REQUIRED C FACTOR  
RELIEF VALVE  
LOCATION  
NOMINAL OUTLET  
PIPE SIZE (in.)  
NUMBER OF  
VALVES  
PRESSURE  
Cooler Condenser lb air/min. kg air/sec.  
psig  
kPa  
1551  
1551  
1551  
1551  
1551  
1551  
1551  
2655  
31-33  
41-43  
44  
31-33  
41-43  
51-53  
45-47  
55-57  
ALL  
139.7  
158.8  
164.6  
216.3  
228.5  
64.2  
1.06  
1.20  
1.24  
1.64  
1.73  
0.49  
0.64  
0.01  
114 FPT  
114 FPT  
114 FPT  
114 FPT  
114 NPT  
114 NPT  
114 FPT  
2
225  
225  
225  
225  
225  
225  
225  
385  
2
Cooler  
2
45-47  
48  
3
3
41-44  
45-48  
ALL  
2*  
2*  
1
Economizer/Storage  
Vessel  
ALL  
84.3  
3
Pumpout Unit Condenser  
ALL  
1.5  
8
in. Male Flare MPT  
*To ensure relief valve serviceability, and as required in ASHRAE 15,  
latest edition, three-way valves and redundant relief valves are in-  
stalled on the storage vessel. Only one half of the ‘‘No. of Valves’’  
listed are in service at any time.  
2. Relief valve discharge pipe sizing is to be calculated per latest  
version of ASHRAE 15, using the tabulated C-factors and nom-  
inal pipe size listed above. Cooler and economizer/storage ves-  
sel rated relief valve pressure is 225 psig (1551 kPa).  
3. The pumpout unit condenser contains less than 110 lb (50 kg) of  
HFC-134a, which is a GroupA1 refrigerant. TheASHRAE 15 stand-  
ard exempts small-volume vessels from the requirement to vent  
outside. However, Carrier recommends that the pumpout con-  
denser be connected to the rest of the vent system.  
NOTES:  
1. The cooler relief C-factor is for both cooler and condenser vented  
through the cooler in accordance with ASHRAE (American  
Society of Heating, Refrigeration, and Air Conditioning Engi-  
neers) 15, latest edition.  
21  
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Table 14 — Individual Component Ratings  
DESIGN CENTER  
AVERAGE kW  
SUPPLY  
V-PH-HZ  
POWER SOURCE  
ITEM  
FLA  
4.78  
4.35  
3.50  
8.70  
LRA  
21.7  
4.35  
VOLTAGE  
Seal Leakage  
Pump  
0.23  
0.50  
0.40  
1.00  
115  
115  
115  
115  
115-1-50/60  
115-1-50/60  
1*  
(17EX Only)  
Motor Space  
Heater  
Control Module  
and Actuator  
115-1-60  
115-1-50  
1†  
115-1-60  
115-1-50  
Oil Sump Heater  
1.35  
1.30  
1.37  
220  
430  
563  
200/240-3-60  
380/480-3-60  
507/619-3-60  
4.32  
2.15  
2.13  
24.5  
12.2  
25.0  
2†  
Oil Pump  
1.49  
1.49  
230  
393  
220/240-3-50  
346/440-3-50  
4.83  
2.59  
28.0  
12.2  
Hot Gas  
Bypass  
1**  
0.20  
115  
115-1-50/60  
2.00  
4.75  
204  
230  
460  
575  
200/208-3-60  
220/240-3-60  
440/480-3-60  
550/600-3-60  
10.90  
9.50  
4.70  
3.80  
63.5  
57.5  
28.8  
23.0  
3**  
(Optional)  
Pumpout  
Compressor  
3.41  
400  
380/415-3-50  
4.70  
28.8  
LEGEND  
NOTE: The oil pump is powered through a field wiring terminal into  
the power panel. Power to the controls and oil heater via the power  
panel must be on circuits that can provide continuous service when  
the compressor starter is disconnected.  
FLA  
LRA  
Full Load Amps  
Locked Rotor Amps  
*Available for 17EX machines only.  
†Available for 17/19EX machines.  
**Available as an option on 17/19EX machines.  
22  
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LEGEND  
Required Power Wiring  
Required Control Wiring  
Options Wiring  
Starter Management Module  
SMM  
*Indicates chilled water pump control contacts or run status contacts.  
†Indicates condenser water pump control contacts.  
**Indicates tower fan relay contacts.  
††Indicates circuit breaker shunt trip contacts.  
Indicates remote alarm contacts.  
NOTES:  
3.4 Do not route control wiring carrying 30 v or less within a conduit which has wires  
carrying 50 v or higher or along side wires carrying 50 v or higher.  
3.5 Voltage selector switch in machine power panel is factory set for 115 v control power  
source. Do not use the 230 v position. If this switch is set to 230 v position, the oil  
heater will not operate.  
3.6 Control wiring cables between starter and power panel must be shielded with mini-  
mum rating of 600 v, 80 C ground shield at starter. Wires A,B, and C are commu-  
nication wires and must be run in a separate cable.  
3.7 If optional oil pump circuit breaker is not supplied within the starter enclosure as  
shown, it must be located within sight of the machine with wiring routed to suit.  
3.8 Voltage to terminals LL1 and LL2 comes from a control transformer in a starter built  
to Carrier specifications. Do not connect an outside source of control power to the  
compressor motor starter (terminals LL1 and LL2). An outside power source will  
produce dangerous voltage at the line side of the starter, because supplying voltage  
at the transformer secondary terminals produces input level voltage at the trans-  
former primary terminals.  
I. GENERAL  
1.0 Starters shall be designed and manufactured in accordance with Carrier Engineer-  
ing Requirement Z-375.  
1.1 All field-supplied conductors, devices, field-installation wiring, and termination of con-  
ductors and devices, must be in compliance with all applicable codes and job speci-  
fications.  
1.2 The routing of field-installed conduit and conductors and the location of field-  
installed devices must not interfere with equipment access or the reading, adjusting,  
or servicing of any component.  
1.3 Equipment, installation, and all starting and control devices must comply with de-  
tails in equipment submittal drawings and literature.  
1.4 Contacts and switches are shown in the position they would assume with the circuit  
deenergized and the chiller shut down.  
1.5 WARNING — Do not use aluminum conductors.  
1.6 Installer is responsible for any damage caused by improper wiring between starter  
and machine.  
IV. POWER WIRING BETWEEN STARTER AND COMPRESSOR MOTOR  
4.0 Low voltage (600 v or less) compressor motors have (6), 5  
in. terminal studs (lead  
8  
II. POWER WIRING TO STARTER  
connectors not supplied by Carrier). Either 3 or 6 leads must be run between com-  
pressor motor and starter, depending on type of motor starter employed. If only 3  
leads are required, jumper motor terminals as follows: 1 to 6, 2 to 4, 3 to 5. Center  
to center distance between terminals is 21516 inches. Compressor motor starter must  
have nameplate stamped as to conforming with Carrier requirement Z-375. Medium  
voltage (over 600 v) compressor motors have (3) terminals. Connections out of ter-  
minals are 3 in. long stranded wire pigtails, #4 AWG, strand wire for all medium  
voltage motor sizes. Distance between terminal is 7916 inches. Use suitable splice  
connectors and insulation for high voltage alternating current cable terminations (these  
items are not supplied by Carrier). Compressor motor starter must have nameplate  
stamped as to conforming with Carrier requirement Z-375.  
2.0 Power conductor rating must meet minimum unit nameplate voltage and compres-  
sor motor RLA.  
When (3) conductors are used:  
Minimum ampacity per conductor = 1.25 x compressor RLA  
When (6) conductors are used for Wye-Delta starting:  
Minimum ampacity per conductor = 0.721 x compressor RLA  
2.1 Lug adapters may be required if installation conditions dictate that conductors be  
sized beyond the minimum ampacity required. Contact starter supplier for lug  
information.  
2.2 Compressor motor and controls must be grounded by using equipment grounding  
lugs provided inside starter enclosure.  
4.1 When more than one conduit is used to run conductors from starter to compressor  
motor terminal box, one conductor from each phase must be in each conduit to  
prevent excessive heating. (e.g., conductors to motor terminals 1, 2 and 3 in one  
conduit, and those to 4, 5 and 6 in another.)  
4.2 Compressor motor power connections can be made through top, top rear or sides  
of compressor motor terminal box using holes cut by contractor to suit conduit. Flex-  
ible conduit should be used for the last few feet to the terminal box for unit vibration  
isolation. Use of stress cones or 12 conductors larger than 500 MCM may require  
an oversize (special) motor terminal box (not supplied by Carrier). Lead connec-  
tions between 3-phase motors and their starters must not be insulated until Carrier  
personnel have checked compressor and oil pump rotations.  
4.3 Compressor motor frame to be grounded in accordance with the National Electrical  
Code (NFPA-70) and applicable codes. Means for grounding compressor motor is  
a pressure connector for #4 to 500 MCM wire, supplied and located in the back  
lower left side corner of the compressor motor terminal box.  
4.4 Do not allow motor terminals to support weight of wire cables. Use cable supports  
and strain reliefs as required.  
4.5 Use backup wrench when tightening lead connectors to motor terminal studs. Torque  
to 45 lb-ft max.  
III. CONTROL WIRING  
3.0 Field supplied control conductors to be at least 18 AWG or larger.  
3.1 Chilled water and condenser water flow switch contacts, optional remote start de-  
vice contacts and optional spare safety device contacts must have 24 vdc rating.  
Max current is 60 ma, nominal current is 10 ma. Switches with gold plated bifur-  
cated contacts are recommended.  
3.2 Remove jumper wire between 12A and 12B before connecting auxiliary safeties be-  
tween these terminals.  
3.3 Pilot relays can control cooler and condenser pump and tower fan motor contactor  
coil loads rated 10 amps at 115 vac up to 3 amps at 600 vac. Control wiring required  
for Carrier to start pumps and tower fan motors must be provided to assure  
machine protection. If primary pump and tower fan motor are controlled by other  
means, also provide a parallel means for control by Carrier. Do not use starter con-  
trol transformer as the power source for pilot relay loads.  
Fig. 17 — Typical Field Wiring (Low-Voltage Motors) with Free-Standing Starter  
23  
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NOTES:  
3.4 Do not route control wiring carrying 30 v or less within a conduit which  
has wires carrying 50 v or higher or along side wires carrying 50 v or  
higher.  
I GENERAL  
1.0 Starters shall be designed and manufactured in accordance with  
3.5 Voltage selector switch in machine power panel is factory set for  
115 v control and oil heater power source. The 230 v position is not  
used. If switch is set to 230 v position, oil heater will not operate.  
3.6 Control wiring cables between starter and power panel must be shielded  
with minimum rating of 600 v, 80 C. Ground shield at starter. Wires A,  
B, and C are communication wires and must be run in a separate cable.  
3.7 If optional oil pump circuit breaker is not supplied within the starter en-  
closure as shown, it must be located within sight of the machine with  
wiring routed to suit.  
3.8 Voltage to terminals LL1 and LL2 comes from a control transformer in  
a starter built to Carrier specifications. Do not connect an outside source  
of control power to the compressor motor starter (terminals LL1 and  
LL2). An outside power source will produce dangerous voltage at the  
line side of the starter, because supplying voltage at the transformer  
secondary terminals produces input level voltage at the transformer pri-  
mary terminals.  
Carrier Engineering requirement Z-375.  
1.1 All field-supplied conductors, devices and the field-installation wiring,  
termination of conductors and devices, must be in compliance with all  
applicable codes and job specifications.  
1.2 The routing of field-installed conduit and conductors and the location of  
field-installed devices, must not interfere with equipment access of the  
reading, adjusting, or servicing of any component.  
1.3 Equipment installation and all starting and control devices must comply  
with details in equipment submittal drawings and literature.  
1.4 Contacts and switches are shown in the position they would assume  
with the circuit deenergized and the chiller shut down.  
1.5 WARNING: Do not use aluminum conductors.  
1.6 Installer is responsible for any damage caused by improper wiring be-  
tween starter and machine.  
II POWER WIRING TO STARTER  
2.0 Power conductor rating must meet minimum unit nameplate voltage  
and compressor motor RLA (rated load amps). When (3) conductors  
are used:  
IV POWER WIRING BETWEEN STARTER AND COMPRESSOR MOTOR  
4.0 Medium voltage (over 600 volts) hermetic compressor motors have  
3 terminals. Use no. 4 AWG strand wires for all medium and high volt-  
age hermetic motors. Distance between terminal is 7916 inches. Use  
suitable splice connectors and insulation for high-voltage alternating  
current cable terminations (these items are not supplied by Carrier).  
Compressor motor starter must have nameplate stamped as to con-  
forming with Carrier requirement Z-375. Medium voltage open motors  
have lug terminations (see certified drawings for size).  
Minimum ampacity per conductor =1.25 x compressor RLA  
When (6) conductors are used:  
Minimum ampacity per conductor =0.721 x compressor RLA.  
2.1 Lug adapters may be required if installation conditions dictate that con-  
ductors be sized beyond the minimum ampacity required. Contact starter  
supplier for lug information.  
2.2 Compressor motor and controls must be grounded by using equip-  
ment grounding lugs provided inside starter enclosure.  
4.1 When more than one conduit is used to run conductors from starter to  
compressor motor terminal box, one conductor from each phase must  
be in each conduit, to prevent excessive heating, (e.g., conductors to  
motor terminals 1, 2, and 3 in one conduit, and those to 1, 2, and 3 in  
another).  
4.2 Compressor motor power connections can be made through top, top  
rear, or sides of compressor motor terminal box by using holes cut by  
contractor to suit conduit. Flexible conduit should be used for the last  
few feet to the terminal box for unit vibration isolation. Use of stress  
cones may require an oversize (special) motor terminal box (not sup-  
plied by Carrier).  
4.3 Compressor motor frame to be grounded in accordance with the Na-  
tional Electrical Code (NFPA-70) and applicable codes. Means for ground-  
ing compressor motor is a no. 4 AWG, 500 MCM pressure connector,  
supplied and located in the lower left side corner of the compressor  
motor terminal box.  
4.4 Do not allow motor terminals to support weight of wire cables, use  
cable supports and strain reliefs as required.  
III CONTROL WIRING  
3.0 Field supplied control conductors to be at least 18 AWG (American Wire  
Gage), or larger.  
3.1 Chilled water and condenser water flow switch contacts, optional re-  
mote start device contacts, and optional spare safety device contacts  
must have 24 vdc rating. Maximum current is 60 ma, nominal current  
is 10 ma. Switches with gold plated bifurcated contacts are  
recommended.  
3.2 Remove jumper wire between 12A and 12B before connecting auxiliary  
safeties between these terminals.  
3.3 Maximum load on pilot relays is 10 amps. Pilot relays can control cooler  
and condenser pump and tower fan motor contactor coil loads rated up  
to 10 amps at 115 vac or up to 3 amps at 600 vac. Control wiring re-  
quired for Carrier to start pumps and tower fan motors must be pro-  
vided to assure machine protection. If primary pump and tower motor  
control is by other means, also provide a parallel means for control by  
Carrier. Do not use starter control transformer as the power source for  
pilot relay loads.  
Fig. 18 — Field Wiring (High Voltage Motors) with Optional Free-Standing Starter (cont)  
25  
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LEGEND  
Factory Wiring  
Field Wiring  
Oil Pump Terminal  
Power Panel Component Terminal  
Fig. 19 — Oil Pump Wiring  
19EX SHOWN  
LEGEND  
NOTES:  
1. Wiring and piping shown are for general point-of-connection only  
1
2
3
4
5
6
7
8
9
Chilled Water Pump Starter  
Condenser Water Pump Starter  
Cooling Tower Fan Starter  
Condenser Water Pump  
Chilled Water Pump  
and are not intended to show details for a specific installation. Cer-  
tified field wiring and dimensional diagrams are available on re-  
quest.  
2. All wiring must comply with applicable codes.  
3. Refer to Carrier System Design Manual for details regarding pip-  
ing techniques.  
Disconnect  
Oil Pump Disconnect (See Note 5)  
Free-Standing Compressor Motor Starter  
Chiller Auxiliary Power Panel  
Piping  
4. Wiring not shown for optional devices such as:  
• Remote Start-Stop  
• Remote Alarms  
• Optional Safety Device  
Control Wiring  
Power Wiring  
• 4 to 20 mA Resets  
• Optional Remote Sensors  
5. Oil pump disconnect may be located within the enclosure of Item  
8 — Free-Standing Compressor Motor Starter.  
6. Water piping to the oil cooler is required on FA compressors.  
Fig. 20 — 17/19EX with Free-Standing Starter  
26  
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temperature range of −4 F to 140 F (−20 C to 60 C) is  
required. See table below for cables that meet the  
requirements.  
MANUFACTURER  
Alpha  
CABLE NO.  
2413 or 5463  
A22503  
American  
Belden  
8772  
Columbia  
02525  
LEGEND  
Field Wiring  
When connecting the CCN communication bus to a sys-  
tem element, a color code system for the entire network is  
recommended to simplify installation and checkout. The fol-  
lowing color code is recommended:  
Power Panel Component Terminal  
Fig. 21 — Oil Heater and Control Power Wiring  
CCN BUS CONDUCTOR  
INSULATION COLOR  
COMM1 PLUG  
PIN NO.  
SIGNAL TYPE  
+
Ground  
Red  
White  
Black  
1
2
3
If a cable with a different color scheme is selected, a  
similar color code should be adopted for the entire network.  
At each system element, the shields of its communication  
bus cables must be tied together. If the communication bus  
is entirely within one building, the resulting continuous shield  
must be connected to ground at only one single point. See  
Fig. 23. If the communication bus cable exits from one build-  
ing and enters another, the shields must be connected to ground  
at the lightning suppressor in each building where the cable  
enters or exits the building (one point only).  
To connect the 17/19EX chiller to the network, proceed  
as follows (Fig. 23):  
1. Cut power to the PIC (Product Integrated Control) panel.  
2. Remove the COMM1 plug from the processor module.  
3. Cut a CCN wire and strip the ends of the RED, WHITE,  
and BLACK conductors.  
Fig. 22 — Carrier Comfort Network  
Communication Bus Wiring  
4. Using a wirenut, connect the drain wires together.  
CARRIER COMFORT NETWORK INTERFACE — The  
Carrier Comfort Network (CCN) communication bus wiring  
is supplied and installed by the electrical contractor (if re-  
quired by jobsite prints). It consists of shielded, 3-conductor  
cable with drain wire.  
The system elements are connected to the communication  
bus in a daisy chain arrangement. The positive pin of each  
system element communication connector must be wired to  
the positive pins of the system element on either side of it.  
The negative pins must be wired to the negative pins. The  
signal ground pins must be wired to the signal ground pins.  
See Fig. 23 for location of the CCN network connector  
(COMM1) on the processor module.  
NOTE: Conductors and drain wire must be 20 AWG  
(American Wire Gage) minimum stranded, tinned copper. In-  
dividual conductors must be insulated with PVC, PVC/  
nylon, vinyl, Teflon, or polyethylene. An aluminum/ poly-  
ester 100% foil shield and an outer jacket of PVC, PVC/  
nylon, chrome vinyl, or Teflon with a minimum operating  
5. Insert and secure the RED wire to Terminal 1 of the  
COMM1 plug.  
6. Insert and secure the WHITE wire to Terminal 2 of the  
COMM1 plug.  
7. Insert and secure the BLACK wire to Terminal 3 of the  
COMM1 plug.  
8. Attach the COMM1 plug back onto the processor  
module.  
9. Mount a terminal strip in a convenient location.  
10. Connect the opposite ends of each conductor to separate  
terminals on the terminal strip.  
11. Attach the CCN Network wiring:  
a. Connect the RED wire to the matching location on  
the terminal strip.  
b. Connect the WHITE wire to the matching location  
on the terminal strip.  
c. Connect the BLACK wire to the matching location  
on the terminal strip.  
27  
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Table 15 — Insulation Requirements  
Install Field Insulation  
Sheet Foam Insulation  
2
ft  
2
COMPONENT  
Cooler Shell (Sizes 31-33)  
m
Protect insulation from weld heat damage and weld splat-  
ter. Cover with wet canvas cover during water piping  
installation.  
254  
306  
374  
48  
23.6  
28.4  
34.7  
4.5  
Cooler Shell (Sizes 41-44)  
Cooler Shell (Sizes 45-48)  
Economizer Low Side Float Chamber  
Economizer Main Shell (with cooler sizes 31-44)  
Economizer Main Shell (with cooler sizes 45-48)  
Suction Line  
When installing insulation at the job site, insulate the fol-  
lowing components (see Fig. 24 and Table 15):  
• compressor motor  
• cooler shell  
• cooler tube sheets  
• suction piping  
• motor cooling drain  
• oil cooler refrigerant side tubing  
• utility vessel (low side)  
Additional insulation of condenser and compressor com-  
ponents and lines may be necessary to prevent condensation  
on these components.  
NOTE: Carrier does not provide waterbox insulation. Insu-  
lation of the waterbox covers must be field supplied at the  
jobsite. When insulating the waterbox covers, allow enough  
room for removal of the waterbox covers during servicing.  
85  
7.9  
115  
25  
10.1  
2.3  
Cooler Marine Waterbox (1 or 3 pass, with  
frame-3 coolers)  
126  
100  
158  
123  
11.7  
9.3  
Cooler Marine Waterbox (2 pass, with  
frame-3 coolers)  
Cooler Marine Waterbox (1 or 3 pass, with  
frame-4 coolers)  
14.7  
11.4  
Cooler Marine Waterbox (2 pass, with  
frame-4 coolers)  
Cooler NIH Waterbox (with frame-3 coolers)  
Cooler NIH Waterbox (with frame-4 coolers)  
74  
88  
6.9  
8.2  
Main Motor Shell (with −51 through −89  
compressors)  
27  
2.5  
Main Motor Shell (with 421 through 469 compressors)  
Main Motor Shell (with 531 through 599 compressors)  
27  
41  
2.5  
3.8  
Foam Tubing Insulation  
TYPE  
Ft  
9
m
118؆ Foam Tubing  
158؆ Foam Tubing  
2؆ Foam Tubing  
5؆ Foam Tubing  
2.7  
0.6  
2.7  
4.3  
FACTORY INSULATION (OPTIONAL) — Optional  
factory insulation is available for the evaporator shell and  
tube sheets, suction pipe, compressor motors, and refriger-  
2
9
14  
3
ant drain line(s). Insulation applied at the factory is 4 in.  
NOTES:  
(19.0 mm) thick and has a thermal conductivity K value of  
1. Cooler value includes marine waterbox on one end (even-pass  
arrangement).  
Btu in.  
W
m
2. Values are approximate.  
0.28  
(0.0404  
°C). Insulation conforms  
hr ft2 °F  
3. Thermal insulation is available as a factory-installed option. Waterbox in-  
sulation must be field supplied.  
with UL Standard 94, Classification 94 HBF.  
28  
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19EX CHILLERS  
LEGEND  
Factory Wiring  
Field Wiring  
*Field-supplied terminal strip must be located in the control center.  
†Switches S1 and S2 are factory set on PSIO modules. Do not alter the switches.  
Fig. 23 — COMM1 CCN Communication Wiring for Multiple 17/19EX Chillers (Typical)  
29  
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FRONT VIEW  
PLAN VIEW  
IMPORTANT: 17EX insulation is identical to the 19EX insulation shown  
above. 17EX motors do not require insulation.  
— Area must be factory or field insulated  
— Area to be field insulated, if ambient conditions require.  
NOTE: Waterbox covers are to be insulated by the contractor.  
Fig. 24 — Typical Insulation Area (19EX Shown)  
Copyright 1996 Carrier Corporation  
Manufacturer reserves the right to discontinue, or change at any time, specifications or designs without notice and without incurring obligations.  
Book 2 PC 211 Catalog No. 531-749 Printed in U.S.A. Form 17/19EX-2SI Pg 30 3-96 Replaces: 17/19EX-1SI  
Tab 5a 5d  
2
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INSTALLATION START-UP REQUEST CHECKLIST  
Machine Model Number: 17/19EX Serial Number:  
To:  
Date  
Project Name  
Carrier Job Number  
Attn:  
The following information provides the status of the chiller installation.  
YES/NO  
(N/A)  
DATE TO BE  
COMPLETED  
1. The machine is level.  
2. The machine components are installed and connected in  
accordance with the installation instructions.  
3. The isolation package and grouting (if necessary)  
are installed.  
4. The relief valves are piped to the atmosphere.  
5. All piping is installed and supported. Direction of flow  
is indicated in accordance with the installation instructions  
and job prints.  
a. Chilled water piping  
b. Condenser water piping  
c. Waterbox drain piping  
d. Pumpout unit condenser piping (if installed)  
e. Oil cooler water piping (FA compressors only)  
f. Other  
6. Gages are installed as called for on the job prints required  
to establish design flow for the cooler and condenser.  
a. Water pressure gages IN and OUT  
b. Water temperature gages IN and OUT  
7. The machine’s starter wiring is complete. The wiring is  
installed per installation instructions and certified prints.  
a. Power wiring to compressor motor. (Motor leads will  
not be taped until the Carrier technician megger tests  
the motor.)  
b. Oil pump wiring  
c. Oil heater/control wiring  
d. Other  
8. The motor starter has not been supplied by Carrier. It  
has been installed according to the manufacturer’s  
instructions.  
9. The motor starter has not been supplied by Carrier and it  
has been checked for proper operation.  
COMMENTS:  
CL-1  
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DATE TO BE  
COMPLETED  
TESTING  
YES/NO  
1. The cooling tower fan has been checked for blade pitch and  
proper operation.  
2. The chilled water and condenser water lines have been:  
a. Filled  
b. Tested  
c. Flushed  
d. Vented  
e. Strainers cleaned  
3. The chilled water and condenser water pumps have been  
checked for proper rotation and flow.  
4. The following cooling load will be available for start-up:  
a. 25%  
b. 50%  
c. 75%  
d. 100%  
5. The refrigerant charge is at the machine.  
6. Services such as electrical power and control air will be avail-  
able at start-up.  
7. The electrical and mechanical representatives will be available  
to assist in commissioning the machine.  
8. The customer’s operators will be available to receive instruc-  
tions for proper operation of the chiller after start-up.  
Concerns about the installation/request for additional assistance:  
I am aware that the start-up time for a Carrier chiller can take between 2 and 6 days depending on the model of the machine and  
the options and accessories used with it.  
Your contact at the job site will be  
Phone number  
Beeper number  
Fax number  
In accordance with our contract, we hereby request the services of your technician to render start-up services per contract terms  
for this job on  
(Date). I understand that the technician’s time will be charged as extra services due to correcting items  
in this checklist that are incomplete.  
Signature of Purchaser  
Signature of Job Site Supervisor  
Copyright 1996 Carrier Corporation  
Manufacturer reserves the right to discontinue, or change at any time, specifications or designs without notice and without incurring obligations.  
Book 2  
2
PC 211  
Catalog No. 531-749  
Printed in U.S.A.  
Form 17/19EX-2SI  
Pg CL-2  
3-96  
Replaces: 17/19EX-1SI  
Tab 5a 5d  
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