Bryant 558F User Manual
installation, start-up and
service instructions
SINGLE PACKAGE ROOFTOP
ELECTRIC HEATING/ELECTRIC COOLING UNITS
Cancels: II 558F-90-3 II 558F-90-4
558F
Dura
Pac
Series
Sizes 090-151
71/2 to 121/2 Tons
9/15/05
IMPORTANT — READ BEFORE INSTALLING
Read and become familiar with these installation instructions before installing this unit.
Be sure the ins tallation conforms to al l applicab le local an d
national codes.
These instructions contain important information for the
proper maintenance and repair of this equipment. Retain
these instructions for future use.
CONTENTS
Page
SAFETY CONSIDERATIONS . . . . . . . . . . . . . . . . . . . . . . . . . 1
INSTALLATION . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1 -53
I. Step 1 — Provide Unit Support. . . . . . . . . . . . . . . . . 1
II. Step 2 — Field Fabricate Ductwork . . . . . . . . . . . . . 1
III. Step 3 — Install External Trap for
Condensate Drain. . . . . . . . . . . . . . . . . . . . . . . . . . 2
IV. Step 4 — Rig and Place Unit . . . . . . . . . . . . . . . . . . . 2
V. Step 5 — Make Electrical Connections . . . . . . . . . . 9
VI. Step 6 — Adjust Factory-Installed
Options . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 22
VII. Step 7 — Adjust Evaporator-Fan Speed . . . . . . . . 31
PRE-START-UP. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54
START-UP . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .54,55
SERVICE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .56-61
TROUBLESHOOTING. . . . . . . . . . . . . . . . . . . . . . . . . . . .61-65
INDEX . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
START-UP CHECKLIST . . . . . . . . . . . . . . . . . . . . . . . . . . CL-1
SAFETY CONSIDERATIONS
Installation and servicing air-conditioning equipment can be
hazardous due to system pressure and electrical components. Only trained and qualified service personnel should
install, repair, or servic e air-conditioning equipment.
Untrained personnel can perform basic maintenance functions of cleaning coils and filters and replacing filters. All
other operations sh o uld be perfor me d by trai ne d se rvi ce personnel. When working on air-conditioning equipment,
observe precautions in the literature, tags and labels
attached to the unit, and other safety precautions that may
apply.
Follow all safety codes. Wear safety glasses and work gloves.
Use quenching cloth for unbrazing operations. Have fire
extinguishers available for all brazing operations.
WARNING: Before performing service or maintenance operations on unit, turn off main power switch
to unit and install lockout tag. Electrical shock could
cause personal injury.
CAUTION: Ensure voltage listed on unit data
plate agrees with electrical supply provided for the
unit.
INSTALLATION
Unit is shipped in the vertical discharge configuration. To
convert to horizontal configu rat ion, remov e scre ws from horizontal duct opening covers and remove covers. Using the
same screws, install covers on duct openings in basepan of
unit with the insulation-side down. Seals around duct openings must be tight. See Fig. 1.
Confirm before installation of unit that voltage, amperage
and circuit protection requirements listed on unit data plate
agree with power supply provided.
I. STEP 1 — PROVIDE UNIT SUPPORT
A. Roof Curb
Assemble and install access ory roof curb in accorda nce with
instructions shipped with curb. See Fig. 2. Install insulation,
cant strips, roofi ng fe lt, and counter flashing as shown. Duct-
work must be attached to curb, not to unit. If electric control
power is to be routed through the basepan, attach the accessory thru-the-bottom service connec tions to the roof curb in
accordance with the accessory installa tion instructions. Connection must be installed before unit is set on roof curb.
IMPORTANT: The gasketing of the unit to the roof curb is
critical for a watertight seal. Install gasket supplied with the
roof curb as shown in Fig. 2. Improperly applied gasket can
also result in air leaks and poor unit performance.
Curb should be level. This is necessar y for unit drain to function properly. Unit leveling tolerances are shown in Fig. 3.
Refer to Accessory Roof Curb Installation Instructions for
additional information as required.
B. Alternate Unit Support
When the curb or adapter cannot be used, support unit with
sleeper rails using unit curb or adapter support area. If
sleepers cannot be used, support long sides of unit with a
minimum of three 4-in. x 4-in. pads, 2 at the unit’s corners
and one at the center of gravity. If more than 3 are used,
equally space out pads along unit side.
C. Slab Mount (Horizontal Units Only)
Provide a level concrete slab that ex te nds a m ini mum o f 6 i n.
beyond unit cabinet. Install a 6-in. gravel apron in front of
outdoor-coil air inlet to prevent grass and foliage from
obstructing airflow.
NOTE: Horizontal units may be installed on a roof curb if
required.
II. STEP 2 — FIELD FABRICATE DUCTWORK
On vertical discharge un its, secure all ducts to ro of c urb and
building structure. Do not connect ductwork to unit. For horizontal applications, field-supplied isolation flanges should b e
attached to horizontal discharge openi ngs and all ductwork
attached to the flanges. Insulate and weatherproof all e xternal ductwork, joints, and roof openings with counter flashing
and mastic in accordance with applicable codes.
Fig. 1 — Horizontal Conversion Panels
Ducts passing through a n unc ondit i one d spa ce must be insulated and covered with a vapor barrier.
If plenum return is used on a vertical unit, the return should
be ducted through the roo f deck to comply with applicable
fire codes.
If electrical connections are to be routed thro ugh the bottom of
the unit, atta ch ac cess ory th ru-t he- bottom s ervi ce con nect ions
to the basepan in accordance with installation instructions.
A minimum clearance is not required around ductwork. Cabinet return-air static pressure (a negative condition) should
not exceed 0.30 in. wg with economizer or 0.45 in. wg
without economizer.
III. STEP 3 — INSTALL EXTERNAL TRAP FOR
CONDENSATE DRAIN
The unit’s
3
/4-in. condensate drain connections are located on
the bottom and side of the unit. Unit discharge connections
do not determine the use of drain connections; either
drain connection can be used with vertical or horizontal
applications.
When using the standard side drain connection, ensure the
plug in the alternate bottom connection (in center of pan) is
tight before installing the unit.
To use the bottom drain connection for a roof curb installation, relocate the factory-installed plug from the bottom connection to the side connection. See Fig. 4. The piping for the
condensate drain and external trap can be completed after
the unit is in place.
All units must have an external trap for condensate drainage. Install a trap at least 4 in. deep and protect against
freeze-up. If a dra in line is installe d downstream from the
external trap, pitch the line away from the unit at 1 in. per
10 ft of run. Do not use a pipe size smaller than the unit
connection (
3
/4-in.). See Fig. 5.
The center drain plug looks lik e a star conne ctio n, however it
can be removed with a
1
/2 in. socket drive extensio n.
IV. STEP 4 — RIG AND PLACE UNIT
Inspect unit for transportation damage. File any claim with
transportation agency. Keep unit upright and do not drop.
Spreader bars are not required if top crating is left on unit.
Rollers may be used to move unit across a roof. Level by
using unit frame as a reference. See Tables 1A and 1B and
Fig. 6 for additional inf ormat ion. Op era ting we ight is s hown
in Tables 1A and 1B and Fig. 6.
Lifting holes are provided in base rails as shown in Fig. 6
and 7A and 7B. Refer to rigging instructions on unit.
CAUTION: All panels m ust be in place when rigging and lifting. Unit is not designed for handling by a
fork truck. Damage to unit may result.
A. Positioning
Maintain clearance around and above unit to provide proper
airflow and service access. See Fig. 7A and 7B.
Position unit on roof curb so that the following clearances are
maintained:
1
/4-in. clearance between roof curb and base
rails on duct end, front and back of unit; 35/16-in. clearance
between roof curb and condenser fan end of un it (see Fig. 2,
sections A-A and C-C).
Do not install unit in an indoor l ocation. Do not locate unit
air inlet near exhaust vents or other sources o f c ontam ina t ed
air.
Although unit is weatherproof, guard against water from
higher level runoff and overhangs.
After unit is in position, remove shipping materials and rigging skid.
—2—
CONNECTOR
PKG. ACCY.
BC
CRBTMPWR001A01
CRBTMPWR002A01 1
CRBTMPWR003A01
2′-8
7
[827]
/16″
1′-1015/16″
[583]
CRBTMPWR004A01
D ALT
DRAIN
HOLE
13/4″
[44.5]
GAS POWER CONTROL
3
/4″
[19] NPT
1
/2″
[12.7] NPT
3
/4″
[19] NPT
3
/4″ [19] NPT
1
/4″ [31.7]
3
/4″ [19] NPT
11/4″ [31.7]
1
/2″
[12.7] NPT
ACCESSORY
POWER
1
/2″
[12.7]
NPT
ROOF CURB
ACCESSORY
“A”
CRRFCURB003A01 1′-2″ [356]
CRRFCURB004A01 2′-0″ [610]
NOTES:
1. Roof curb accessory is shipped
disassembled.
2. Insulated panels: 1-in. thick polyurethane
3. Dimensions in [ ] are in millimeters.
4. Roof curb: 16-gage steel.
5. Attach ductwork to curb (flanges of duct rest
6. Service clearance 4 ft on each side.
foam, 1
on curb).
3
/4 lb density.
UNIT
SIZE
558F
090-151
7. Direction of airflow.
8. Connector packages CRBTMPWR001A01
and 2A01 are for thru-the-curb gas type.
Packages CRBTMPWR003A01 and 4A01
are for the thru-the-bottom type gas
connections.
Fig. 2 — Roof Curb Details
—3—
MAXIMUM ALLOWABLE
DIFFERENCE (in.)
A-B B-C A-C
0.5 1.0 1.0
Fig. 3 — Unit Leveling Tolerance
NOTE:
Trap should be deep enough to offset maximum unit static differ-
ence. A 4-in. trap is recommended.
Fig. 5 — Condensate Drain Piping Details
DRAIN OUTLET
NOTE: Drain plug is shown in factory-installed position.
DRAIN PLUGHORIZONTAL
Fig. 4 — Condensate Drain Connection (Side View)
NOTES:
1. Dimension in ( ) is in millimeters.
2. Hook rigging shackles through holes in base rail, as shown in detail
‘‘A.’’ Holes in base rails are centered around the unit center of gravity. Use wooden top skid when rigging to prevent rigging straps
from damaging unit.
3. Unit weights do not include economizer. See Tables 1A and 1B for
unit weight of economizer.
CAUTION: All panels must be in place when rigging. Unit
is not designed for handling by a fork truck. Damage to unit may
result.
OPERATING
UNIT
558F
090,091 755 342 77.42 1967 40.25 1022 41.31 1050
102,103 760 345 77.42 1967 40.25 1022 41.31 1050
120,121 915 415 77.42 1967 40.25 1022 49.31 1253
150,151 930 422 77.42 1967 40.25 1022 49.31 1253
WEIGHT
lb kg in. mm in. mm in. mm
‘‘A’’ ‘‘B’’ ‘‘C’’
DIMENSIONS
Fig. 6 — Rigging Details
—4—
—5—
Fig.7A — Base Unit Dimensions — 558F090,102,120,150
—6—
Fig. 7B — Base Unit Dimensions — 558F091,103,121,151
Table 1A — Physical Data — 558F090,102,120,150 Units
558F UNIT SIZE 090 102 120 150
NOMINAL CAPACITY (tons) 7
OPERATING WEIGHT (lb)
Unit
Al/Al* 755 760 915 930
Al/Cu* 766 776 937 957
Cu/Cu* 778 787 960 980
EconoMi$er IV 75 75 75 75
Roof Curb† 143 143 143 143
COMPRESSOR Reciprocating Reciprocating Reciprocating Scroll
Quantity 2222
No. Cylinders (per circuit) 222—
Oil (oz) 42 ea 65 ea 54 ea 54 ea
REFRIGERANT TYPE R-22
Operating Charge (lb-oz)
Circuit 1 4-13 6-14 7- 3 8-10
Circuit 2 4-14 9- 2 7-13 8- 6
CONDENSER COIL Enhanced Copper Tubes, Aluminum Lanced Fins
Rows...Fins/in. 1...17 2...17 2...17 2...17
Total Face Area (sq ft) 20.50 18.00 20.47 25.00
CONDENSER FAN Propeller Type
Nominal Cfm 6400 6400 7000 7000
Quantity...Diameter (in.) 2...22 2...22 2...22 2...22
Motor Hp...Rpm
Watts Input (Total) 600 600 600 600
EVAPORATOR COIL Enhanced Copper Tubes, Aluminum Double-Wavy Fins, Fixed Orifice Metering Device
Rows...Fins/in. 3...15 3...15 3...15 4...15
Total Face Area (sq ft) 8.0 8.0 10.0 11.1
EVAPORATOR FAN Centrifugal Type
Quantity...Size (in.) Std 1...15 x 15 1...15 x 15 1...15 x 15 1...15 x 15
Type Drive Std Belt Belt Belt Belt
Nominal Cfm 3000 3100 4000 5000
Maximum Continuous Bhp Std 2.40 2.40 2.40 3.70
Motor Frame Size Std 56 56 56 56
Fan Rpm Range Std 590- 840 685- 935 685- 935 860-1080
Motor Bearing Type Ball Ball Ball Ball
Maximum Allowable Rpm 2100 2100 2100 2100
Motor Pulley Pitch Diameter Min/Max (in.) Std 2.4/3.4 2.8/3.8 2.8/3.8 4.0/5.0
Nominal Motor Shaft Diameter (in.) Std
Fan Pulley Pitch Diameter (in.) Std 7.0 7.0 7.0 8.0
Belt, Quantity...Type...Length (in.) Std 1...A...49 1...A...49 1...A...49 1...A...52
Pulley Center Line Distance (in.) Std 16.75-19.25 16.75-19.25 15.85-17.50 15.85-17.50
Speed Change per Full Turn of
Movable Pulley Flange (rpm) Std 50 50 50 44
Movable Pulley Maximum Full Turns
From Closed Position Std 5555
Factory Setting Std 5555
Factory Speed Setting (rpm) Std 590 685 685 860
Fan Shaft Diameter at Pulley (in.) 1111
HIGH-PRESSURE SWITCH (psig)
Standard Compressor Internal Relief (Differential) 450 ± 50 500 ± 50
Cutout 428 428
Reset (Auto.) 320 320
LOSS-OF-CHARGE/LOW-PRESSURE SWITCH (psig)
Cutout 7 ± 3
Reset (Auto.) 22 ± 7
FREEZE-PROTECTION THERMOSTAT (F)
Opens 30 ± 5
Closes 45 ± 5
Alt 1...15 x 15 — 1...15 x 15 1...15 x 15
High-Static 1...15 x 15 1...15 x 15 1...15 x 15 —
Alt Belt — Belt Belt
High-Static Belt Belt Belt —
Alt 2.40 — 2.90 5.25
High-Static 3.70 3.70 5.25 —
Alt 56 — 56 56
High-Static 56 56 56 —
Alt 685- 935 — 835-1085 830-1130
High-Static 860-1080 860-1080 830-1130 —
Alt 2.8/3.8 — 3.4/4.4 3.1/4.1
High-Static 4.0/5.0 4.0/5.0 2.8/3.8 —
Alt
High-Static
Alt 7.0 — 7.0 5.9
High-Static 8.0 8.0 5.8 —
Alt 1...A...49 — 1...A...49 1...BX...46
High-Static 1...A...55 1...A...55 1...BX...46 —
Alt 15.75-19.25 — 15.85-17.50 15.85-17.50
High-Static 15.75-19.25 16.75-19.25 15.85-17.50 —
Alt 50 — 50 50
High-Static 60 60 60 —
Alt 5—5 6
High-Static 556—
Alt 5—5 5
High-Static 555—
Alt 685 — 835 887
High-Static 860 860 887 —
1
1
/4...1100
5
/
5
/
7
/
/
2
8
8
8
81/
1
/4...1100
5
/
—
7
/
2
8
8
10 121/
1
/4...1100
5
/
8
7
/
8
7
/
8
1
/4...1100
7
/
7
/
—
2
8
8
OUTDOOR-AIR INLET SCREENS Cleanable. Screen size and quantity varies by option selected.
RETURN-AIR FILTERS Throwaway
Quantity...Size (in.) 4...16 x 20 x 2 4...16 x 20 x 2 4...20 x 20 x 2 4...20 x 20 x 2
LEGEND *Evaporator coil fin material/condenser coil fin material. Contact your local Bryant representa-
Al — Aluminum
Bhp — Brake Horsepower
Cu — Copper
tive for details about coated fins.
†Weight of 14-in. roof curb.
NOTE: High-static motor not available on size 150 and 151 units.
—7—
Table 1B — Physical Data — 558F091,103,121,151 Units
(ASHRAE 90.1-1999 Compliant Units)
558F UNIT SIZE 091 103 121 151
NOMINAL CAPACITY (tons) 7
OPERATING WEIGHT (lb)
Unit
Al/Al* 755 760 915 930
Al/Cu* 766 776 937 957
Cu/Cu* 778 787 960 980
Economizer
EconoMi$er IV 75 75 75 75
Roof Curb† 143 143 143 143
COMPRESSOR Reciprocating Scroll Scroll Scroll
Quantity 2222
No. Cylinders (per Circuit) 2222
Oil (oz) (each compressor) 42 53 50 60
REFRIGERANT TYPE R-22
Expansion Device Fixed Orifice Metering Device
Operating Charge (lb-oz)
Circuit 1 7-10 7-14 8-10 9-8
Circuit 2 8-2 8-5 8-8 9-5
CONDENSER COIL Enhanced Copper Tubes, Aluminum Lanced Fins
Rows...Fins/in. 2...17 2...17 2...17 2...17
Total Face Area (sq ft) 20.50 20.50 25.00 25.00
CONDENSER FAN Propeller Type
Nominal Cfm 6500 6500 7000 7000
Quantity...Diameter (in.) 2...22 2...22 2...22 2...22
Motor Hp...Rpm
Watts Input (Total) 650 650 650 650
EVAPORATOR COIL Enhanced Copper Tubes, Aluminum Double-Wavy Fins, Face Split
Rows...Fins/in. 3...15 3...15 3...15 4...15
Total Face Area (sq ft) 8.9 8.9 10.0 11.1
EVAPORATOR FAN Centrifugal Type
Quantity...Size (in.) Std 1...15 x 15 1...15 x 15 1...15 x 15 1...15 x 15
Type Drive Std Belt Belt Belt Belt
Nominal Cfm 2900 3000 3200 5000
Maximum Continuous Bhp Std 2.40 2.40 2.40 3.70
Motor Frame Size Std 56 56 56 56
Fan Rpm Range Std 590-840 685-935 685-935 860-1080
Motor Bearing Type Ball Ball Ball Ball
Maximum Allowable Rpm 2100 2100 2100 2100
Motor Pulley Pitch Diameter Min/Max (in.) Std 2.4/3.4 2.8/3.8 2.8/3.8 4.0/5.0
Nominal Motor Shaft Diameter (in.) Std
Fan Pulley Pitch Diameter (in.) Std 7.0 7.0 7.0 8.0
Belt, Quantity...Type...Length (in.) Std 1...A...49 1...A...49 1...A...49 1...A...52
Pulley Center Line Distance (in.) Std 16.75-19.25 16.75-19.25 15.85-17.50 15.85-17.50
Speed Change per Full Turn of Std 50 50 50 44
Movable Pulley Flange (rpm) Alt 50 — 50 50
Movable Pulley Maximum Full Turns Std 5555
From Closed Position Alt 5—5 6
Factory Setting Std 5555
Factory Speed Setting (rpm) Std 590 685 685 860
Fan Shaft Diameter at Pulley (in.) 1111
HIGH-PRESSURE SWITCH (psig)
Standard Compressor 450 ± 50 500 ± 50
Internal Relief (Differential)
Cutout 428 428
Reset (Auto.) 320 320
LOW-PRESSURE SWITCH (psig)
Cutout 7 ± 3
Reset (Auto.) 22 ± 7
FREEZE PROTECTION
THERMOSTAT (F)
Opens 30 ± 5
Closes 45 ± 5
Alt 1...15 x 15 — 1...15 x 15 1...15 x 15
High-Static 1...15 x 15 1...15 x 15 1...15 x 15 —
Alt Belt — Belt Belt
High-Static Belt Belt Belt —
Alt 2.40 — 2.90 5.25
High-Static 3.70 3.70 5.25 —
Alt 56 — 56 56
High-Static 56 56 56 —
Alt 685-935 — 835-1085 830-1130
High-Static 860-1080 860-1080 830-1130 —
Alt 2.8/3.8 — 3.4/4.4 3.1/4.1
High-Static 4.0/5.0 4.0/5.0 2.8/3.8 —
Alt
High-Static
Alt 7.0 — 7.0 5.9
High-Static 8.0 8.0 5.8 —
Alt 1...A...49 — 1...A...49 1...BX...46
High-Static 1...A...55 1...A...55 1...BX...46 —
Alt 16.75-19.25 — 15.85-17.50 15.85-17.50
High-Static 16.75-19.25 16.75-19.25 15.85-17.50 —
High-Static 60 60 60 —
High-Static 556—
Alt 5—5 5
High-Static 555—
Alt 685 — 835 887
High-Static 860 860 887 —
OUTDOOR-AIR INLET SCREENS Cleanable. Screen size and quantity varies by option selected.
RETURN-AIR FILTERS Throwaway
Quantity...Size (in.) 4...16 x 20 x 2 4...16 x 20 x 2 4...20 x 20 x 2 4...20 x 20 x 2
LEGEND
Al — Aluminum
Bhp — Brake Horsepower
Cu — Copper
1
1
/4...1100
5
/
5
/
7
/
/
2
8
8
8
*Evaporator coil fin material/condenser coil fin material. Contact your local Bryant repre-
sentative for details about coated fins.
†Weight of 14-in. roof curb.
81/
1
/4...1100
5
/
—
7
/
2
8
8
10 121/
1
/4...1100
5
/
8
7
/
8
7
/
8
1
/4...1100
7
/
7
/
—
2
8
8
NOTE: High-static motor not available on size 150 and 151 units.
—8—
V. STEP 5 — MAKE ELECTRICAL CONNECTIONS
WARNING: Unit cabinet must have an uninter-
rupted, unbroken electrical ground to minimize the
possibility of personal injury if an electrical fault
should occur. This ground may consist of elec tric al wire
connected to unit ground lug in control compartment,
or conduit approved for electrical ground when
installed in accordance with NEC (Nati onal Electrical
Code), ANSI/NFPA (American National Standards
Institute/National Fire Protection Association), latest
edition, and local electrical codes. Failure to follow this
warning could result in the installer being liable for
personal injury of others.
A. Field Power Supply
All units except 208/230-v units are factory wired for the
voltage shown on the na meplate. If the 208/230-v un it is to
be connected to a 208-v power supply, the transformer must
be rewired by moving the black wire from the 230-v
1
/4-in.
male spade terminal on the transformer and connecting it to
the 200-v
1
/4-in. male spade terminal on the transformer.
Refer to unit label diagram for additional information . Pigtails are provided for field wire connecti ons.
When installing units, provide a disconnect per NEC. Use
copper conductors only when splice connectors are used.
NOTE: When accessory thru-the-bottom connections are
used, refer to the accessory installation instructions for
information on power wiring. Refer to Fig. 7A and 7B for
drilling locations.
All field wiring must comply with NEC and local requirements. In Canada, electr ical connections must be in accordance with CSA (Canadian Standards Association) C22.1
Canadian Electrical Code Part One.
Install field wiring as follows (see Fig. 8-10):
1. Instal l conduit th rough side p anel opening s between
disconnect and single point box (see Fig. 9 and 10).
2. Install powe r w ire s to t erm ina l conn ect ions as sho wn
in Fig. 8.
Voltage to compressor terminals during operation must be
within voltage range indicated on unit nameplate (see
Tables 2A-2D). On 3-phase units, voltages between phases
must be balanced within 2% and the current within 10%.
Use the formula shown in the legend for Tables 2A and 2B,
Note 2 to determine the percentage of voltage imbalance.
Operation on improper line voltage or excessive phase imbalance constitutes abuse and may cause damage to electrical
components. (Such operation would invalidate any applicable Bryant warranty.)
B. Field Control Wiring
Install a Bryant-approved accessory thermostat assembly
according to installation instructions included with the
accessory. Locate thermostat assembly on a solid wall in the
conditioned space to sense average temperature in accordance with thermostat installation instructions.
Route thermostat ca ble or equivalent si ngle leads of col ored
wire from subbase terminals to low-voltage connections on
unit (shown in Fig. 11) as described in Steps 1-5 below.
NOTE: For wire runs up to 50 ft, use no. 18 AWG (American
Wire Gage) insulated wire (35 C minimum). For 50 to 75 ft,
use no. 16 AWG insulated wire (35 C minimum). For over
75 ft, use no. 14 AWG insulated wire (35 C minimum). All
wire larger than no. 18 AWG cannot be directly c onn ected to
the thermost at and wi ll requi re a junct ion box and splic e at
the thermostat.
1. If unit is mounte d on roof curb and accessory thruthe-bottom connection is used, route wire through
connector provided in accessory kit through the unit
basepan.
2. Pass control wires thro ugh the hole prov ided on unit
(see connection D, Connection Sizes Table, Fig. 7A
and 7B).
3. Feed wire through the raceway built into the corner
post to the 24-v barrier located on the left side of the
control box. See Fig. 12. The raceway provides the
UL-required (Underwriters’ Laboratories) clearance
between the high-and low-voltage wiring.
4. Connect thermos tat wires to screw term inals of lowvoltage terminal board.
5. If unit is to be equipped with electric resistance heat,
ensure thermostat on a call for heat “W” energizes
“G” output. This allows fan operation on a call for
heat.
575-3-60
208/230-3-60
(090-121),
460-3-60
208/230-3-60
(150,151)
C—Contactor Terminal Block
IFC — Indoor (Evaporator)
NEC — National Electrical Code Field Wiring
TB — Terminal Block Factory Wiring
Fan Contactor
LEGEND
ConnectionCOMP(S) — Compressor(s)
Splice Connection
Fig. 8 — Power Wiring Connections
—9—
558F
UNIT
SIZE
090
102
NOMINAL
V-P h- Hz
208/230-3-60
460-3-60
575-3-60
208/230-3-60
460-3-60
575-3-60
Table 2A — Electrical Data (Units Without Convenience Outlet) (558F090, 102, 120, 150)
VO LTAGE
RANGE
IFM
TYPE
Min Max RLA LRA Qty Hp FLA
Std
and
Alt
187 254 14.0 91.0 21/41.4
High 10.6
Std
and
Alt
414 508 6.4 42.0 21/40.7
High 4.8
Std
and
Alt
518 632 5.2 39.0 21/40.7
High 4.8
Std
187 254 16.0 137.0 21/41.4
High 10.6
Std
414 508 8.3 69.0 21/40.7
High 4.8
Std
518 632 6.4 58.0 21/40.7
High 4.8
COMPRESSOR
(ea)
OFM
(ea)
ELECTRIC
IFM
FLA
5.8
2.6
2.6
5.8
2.6
2.6
HEAT
Nominal
kW
— — 40.1/ 40.1 45/ 45 42/ 42
7.8/10.4 21.7/ 25.0 40.1/ 40.1 45/ 45 42/ 42
12.0/16.0 33.4/ 38.5 48.9/ 55.4 50/ 60 45/ 51
18.6/24.8 51.7/ 59.7 71.9/ 81.8 80/ 90** 66/ 75
24.0/32.0 66.7/ 77.0 90.6/103.5 100/110** 83/ 95
31.8/42.4 88.4/102.0 117.7/134.8 125/150** 108/124
— — 44.9/ 44.9 50/ 50 48/ 48
7.8/10.4 21.7/ 25.0 44.9/ 44.9 50/ 50 48/ 48
12.0/16.0 33.4/ 38.5 54.9/ 61.4 60/ 70** 51/ 56
18.6/24.8 51.7/ 59.7 77.9/ 87.8 80/ 90** 72/ 81
24.0/32.0 66.7/ 77.0 96.6/109.5 100/110** 89/101
31.8/42.4 88.4/102.0 123.7/140.8 125/150** 114/129
— — 18.4 25 19
13.9 16.7 24.1 25 22
16.5 19.8 28.1 30 26
27.8 33.4 45.0 50 41
33.0 39.7 52.9 60 49
41.7 50.2 65.9 70** 61
— — 20.6 25 22
13.9 16.7 26.9 30 25
16.5 19.8 30.8 35 28
27.8 33.4 47.8 50 44
33.0 39.7 55.6 60 51
41.7 50.2 68.7 70** 63
— — 14.9 20 16
34.0 34.1 45.3 50 42
— — 16.7 20 18
34.0 34.1 47.5 50 44
— — 44.6/ 44.6 50/ 50 47/ 47
7.8/10.4 21.7/ 25.0 44.6/ 44.6 50/ 50 47/ 47
12.0/16.0 33.4/ 38.5 48.9/ 55.4 50/ 60 47/ 51
18.6/24.8 51.7/ 59.7 71.9/ 81.8 80/ 90** 66/ 75
24.0/32.0 66.7/ 77.0 90.6/103.5 100/110** 83/ 95
31.8/42.4 88.4/102.0 117.7/134.8 125/150** 108/124
— — 49.4/ 49.4 60/ 60 52/ 52
7.8/10.4 21.7/ 25.0 49.4/ 49.4 60/ 60 52/ 52
12.0/16.0 33.4/ 38.5 54.9/ 61.4 60/ 70** 52/ 56
18.6/24.8 51.7/ 59.7 77.9/ 87.8 80/ 90** 72/ 81
24.0/32.0 66.7/ 77.0 96.6/109.5 100/110** 89/101
31.8/42.4 88.4/102.0 123.7/140.8 125/150** 114/129
— — 22.7 25 24
13.9 16.7 24.1 25 24
16.5 19.8 28.1 30 26
27.8 33.4 45.0 50 41
33.0 39.7 52.9 60 49
41.7 50.2 65.9 70** 61
— — 24.9 30 26
13.9 16.7 26.9 30 26
16.5 19.8 30.8 35 28
27.8 33.4 47.8 50 44
33.0 39.7 55.6 60 51
41.7 50.2 68.7 70** 63
— — 17.6 20 18
34.0 34.1 45.3 50 42
— — 19.4 25 20
34.0 34.1 47.5 50 44
FLA MCA MOCP† FLA LRA
POWER
SUPPLY
DISCONNECT
SIZE*
229/229
273/273
108
130
11417.0 17.1 26.1 30 24
321/321
365/365
162
184
13517.0 17.1 23.9 25 22
15217.0 17.1 26.1 30 24
9717.0 17.1 23.9 25 22
—10—
Table 2A — Electrical Data (Units Without Convenience Outlet) (558F090, 102, 120, 150) (cont)
558F
UNIT
SIZE
120
NOMINAL
V-P h- Hz
208/230-3-60
460-3-60
575-3-60
VO LTAGE
RANGE
IFM
TYPE
Min Max RLA LRA Qty Hp FLA
Std
187 254 15.8 130.0 2
Alt 7.5
High 15.0
Std
Alt
414 508 7.9 64.0 2
High
Std
Alt 3.4
518 632 6.6 52.0 2
High 7.4
LEGEND
FLA — Full Load Amps
HACR — Heating, Air Conditioning and Refrigeration
IFM — Indoor (Evaporator) Fan Motor
LRA — Locked Rotor Amps
MCA — Minimum Circuit Amps
MOCP — Maximum Overcurrent Protection
NEC — National Electrical Code
OFM — Outdoor (Condenser) Fan Motor
RLA — Rated Load Amps
*Used to determine minimum disconnect per NEC.
†Fuse or HACR circuit breaker per NEC.
**Fuse only.
††Compres sor no. 1 is shown in table.
208/230-3-60: Compressor no. 2 RLA is 14.1 amps and LRA is 105 amps.
460-3-60: Compressor no. 2 RLA is 7.1 amps and LRA is 55 amps.
575-3-60: Compressor no. 2 RLA is 6.4 amps and LRA is 40 amps.
NOTES:
1. In compliance with NEC requirements for multimotor and combination load equipment (refer
to NEC Articles 430 and 440), the overcurrent protective device for the unit shall be fuse or
HACR breaker. Canadian units may be fuse or circuit breaker.
2. Unbalanced 3-Phase Supply Voltage
Never operate a motor where a phase imbalance in supply voltage is greater than 2%.
the following formula to determine the percent of voltage imbalance.
% Voltage Imbalance
= 100 x
Determine maximum deviation from average voltage.
(AB) 457 – 452 = 5 v
(BC) 464 – 457 = 7 v
(AC) 457 – 455 = 2 v
Maximum deviation is 7 v.
Determine percent of voltage imbalance.
% Voltage Imbalance = 100 x
This amount of phase imbalance is satisfactory as it is below the maximum allowable 2%.
max voltage deviation from average voltage
average voltage
Example: Supply voltage is 460-3-60.
AB = 452 v
BC = 464 v
AC = 455 v
Average Voltage =
= 1.53%
7
457
452 + 464 + 455
1371
=
= 457
3
COMPRESSOR
3
(ea)
OFM
(ea)
1
/41.4
1
/40.7
1
/40.7
Use
ELECTRIC
IFM
FLA
5.8
2.6
3.4
7.4
2.6
IMPORTANT: If the supply voltage phase imbalance is more than 2%, contact your local electric
utility company immediately.
3. For units with power exhaust: If a single power source is to be used, size wire to include
4. Determine heater capacity using multiplication factors table below:
HEAT
Nominal
kW
— — 43.1/ 43.1 50/ 50 45/ 45
7.8/10.4 21.7/ 25.0 43.1/ 43.1 50/ 50 45/ 45
12.0/16.0 33.4/ 38.5 48.9/ 55.4 60/ 60 45/ 51
24.0/32.0 66.7/ 77.0 90.6/103.5 100/110** 83/ 95
31.8/42.4 88.4/102.0 117.7/134.8 125/150** 108/124
37.6/50.0 104.2/120.3 137.5/127.5 150/150**
— — 44.8/ 44.8 50/ 50 47/ 47
7.8/10.4 21.7/ 25.0 44.8/ 44.8 50/ 50 47/ 47
12.0/16.0 33.4/ 38.5 51.1/ 57.5 60/ 60 47/ 53
24.0/32.0 66.7/ 77.0 92.8/105.6 100/110** 85/ 97
31.8/42.4 88.4/102.0 119.9/136.9 125/150** 110/126
37.6/50.0 104.2/120.3 139.7/129.7 150/150** 128/147
— — 52.3/ 52.3 60/ 60 56/ 56
7.8/10.4 21.7/ 25.0 52.3/ 52.3 60/ 60 56/ 56
12.0/16.0 33.4/ 38.5 60.4/ 66.9 60/ 80** 56/ 62
24.0/32.0 66.7/ 77.0 102.1/115.0 110/125** 94/106
31.8/42.4 88.4/102.0 129.2/146.3 150/150** 119/135
37.6/50.0 104.2/120.3 149.0/139.0 150/175** 137/156
— — 21.0 25 22
16.5 19.8 28.1 30 26
27.8 33.4 45.0 50 41
33.0 39.7 52.9 60 49
41.7 50.2 65.9 70** 61
50.0 60.1 63.4 70** 72
— — 21.8 25 23
16.5 19.8 29.1 30 27
27.8 33.4 46.0 50 42
33.0 39.7 53.9 60 50
41.7 50.2 66.9 70** 62
50.0 60.1 64.4 70** 73
— — 25.8 30 27
16.5 19.8 34.1 35 31
27.8 33.4 51.0 60 47
33.0 39.7 58.9 60 54
41.7 50.2 71.9 80** 66
50.0 60.1 69.4 80** 78
— — 17.9 20 19
17.0 17.1 23.9 25 22
34.0 34.1 45.3 50 42
51.0 51.2 53.8 60 61
— — 18.5 25 19
17.0 17.1 24.7 25 23
34.0 34.1 46.1 50 42
51.0 51.2 54.6 60 62
— — 21.7 25 23
17.0 17.1 28.7 35 26
34.0 34.1 50.1 60 46
51.0 51.2 58.6 70** 66
power exhaust MCA and MOCP. Check MCA and MOCP when power exhaust is powered
through the unit (must be in accordance with NEC and/or local codes). Determine the
new MCA including the power exhaust using the following formula:
MCA New = MCA unit only + MCA of Power Exhaust
For example, using a 558FPX091000 unit with MCA = 40.1 and MOCP = 45, with
CRPWREXH030A01 power exhaust.
MCA New = 40.1 amps + 1.6 amps = 41.7 amps
If the new MCA does not exceed the published MOCP, then MOCP would not change.
The MOCP in this example is 45 amps, the MCA New is below 45, therefore the MOCP is
acceptable. If “MCA New” is larger than the published MOCP, raise the MOCP to the next
larger size. For separate power, the MOCP for the power exhaust will be 15 amps per
NEC.
POWER EXHAUST
CRPWREXH021A01 N/A 0.9 N/A 15
CRPWREXH022A01 3.3 N/A 1.32 15
CRPWREXH023A01 N/A 1.8 N/A 15
CRPWREXH028A01 1.7 N/A 0.68 15
CRPWREXH029A01 N/A 1.0 N/A 15
CRPWREXH030A01 1.6 N/A 0.64 15
HEATER
RATING
VO LTAGE
240 0.694 0.751 0.918 1.000 — — — — — — —
480 — — — — 0.626 0.840 0.918 1.000 — — —
600 — — — — — — — — 0.840 0.918 1.000
NOTE: The following equation converts kW of heat energy to Btuh: kW x 3.412 = Btuh.
EXAMPLE: 32.0 kW (at 240 v) heater on 208 v
FLA MCA MOCP† FLA LRA
PAR T N O.
200 208 230 240 380 440 460 480 550 575 600
= 32.0 (.751 mult factor)
= 24.0 kW capacity at 208 v
POWER
SUPPLY
MCA
(230 v)
MCA
(460 v)
ACTUAL HEATER VOLTAGE
MCA
(575 v)
DISCONNECT
SIZE*
127/145
MOCP
(for separate
power source)
307/307
326/326
374/374
152
191
185
107
139
134
—11—
Table 2A — Electrical Data (Units Without Convenience Outlet) (558F090, 102, 120, 150) (cont)
558F
UNIT
SIZE
150
NOMINAL
V-P h- Hz
208/230-3-60
460-3-60
575-3-60
VO LTAGE
RANGE
IFM
TYPE
Min Max RLA LRA Qty Hp FLA
Std
187 254 23.0 146.0 21/41.4
Alt 15.0
Std
414 508 10.4 73.0 21/40.7
Alt 7.4
Std
518 632 8.3 58.4 21/40.7
Alt 7.4
LEGEND
FLA — Full Load Amps
HACR — Heating, Air Conditioning and Refrigeration
IFM — Indoor (Evaporator) Fan Motor
LRA — Locked Rotor Amps
MCA — Minimum Circuit Amps
MOCP — Maximum Overcurrent Protection
NEC — National Electrical Code
OFM — Outdoor (Condenser) Fan Motor
RLA — Rated Load Amps
*Used to determine minimum disconnect per NEC.
†Fuse or HACR circuit breaker per NEC.
**Fuse only.
††Compres sor no. 1 is shown in table.
208/230-3-60: Compressor no. 2 RLA is 14.1 amps and LRA is 105 amps.
460-3-60: Compressor no. 2 RLA is 7.1 amps and LRA is 55 amps.
575-3-60: Compressor no. 2 RLA is 6.4 amps and LRA is 40 amps.
NOTES:
1. In compliance with NEC requirements for multimotor and combination load equipment (refer
to NEC Articles 430 and 440), the overcurrent protective device for the unit shall be fuse or
HACR breaker. Canadian units may be fuse or circuit breaker.
2. Unbalanced 3-Phase Supply Voltage
Never operate a motor where a phase imbalance in supply voltage is greater than 2%.
the following formula to determine the percent of voltage imbalance.
% Voltage Imbalance
= 100 x
Determine maximum deviation from average voltage.
(AB) 457 – 452 = 5 v
(BC) 464 – 457 = 7 v
(AC) 457 – 455 = 2 v
Maximum deviation is 7 v.
Determine percent of voltage imbalance.
% Voltage Imbalance = 100 x
This amount of phase imbalance is satisfactory as it is below the maximum allowable 2%.
max voltage deviation from average voltage
average voltage
Example: Supply voltage is 460-3-60.
AB = 452 v
BC = 464 v
AC = 455 v
Average Voltage =
= 1.53%
=
7
457
452 + 464 + 455
1371
3
= 457
COMPRESSOR
3
(ea)
OFM
(ea)
Use
ELECTRIC
IFM
FLA
10.6
4.8
4.8
IMPORTANT: If the supply voltage phase imbalance is more than 2%, contact your local electric
utility company immediately.
3. For units with power exhaust: If a single power source is to be used, size wire to include
4. Determine heater capacity using multiplication factors table below:
HEAT
Nominal
kW
— — 65.2/ 65.2 80/ 80** 68/ 68
7.8/10.4 21.7/ 25.0 65.2/ 65.2 80/ 80** 68/ 68
12.0/16.0 33.4/ 38.5 65.2/ 65.2 70/ 70** 68/ 68
24.0/32.0 66.7/ 77.0 96.6/109.5 100/110** 89/101
31.8/42.4 88.4/102.0 123.7/140.8 125/150** 114/129
37.6/50.0 104.2/120.3 143.5/133.5 150/150** 132/151
— — 69.6/ 69.6 80/ 80** 73/ 73
7.8/10.4 21.7/ 25.0 69.6/ 69.6 80/ 80** 73/ 73
12.0/16.0 33.4/ 38.5 69.6/ 69.6 80/ 80** 73/ 73
24.0/32.0 66.7/ 77.0 102.1/115.0 110/125** 94/106
31.8/42.4 88.4/102.0 129.2/146.3 150/150** 119/135
37.6/50.0 104.2/120.3 149.0/139.0 150/175** 137/156
— — 29.6 40 31
16.5 19.8 30.8 40 31
27.8 33.4 47.8 50 44
33.0 39.7 55.6 60 51
41.7 50.2 68.7 70** 63
50.0 60.1 66.1 80** 75
— — 32.2 45 34
16.5 19.8 34.1 45 34
27.8 33.4 51.0 60 47
33.0 39.7 58.9 60 54
41.7 50.2 71.9 80** 66
50.0 60.1 69.4 80** 78
— — 23.6 30 25
17.0 17.1 26.1 30 25
34.0 34.1 47.5 50 44
51.0 51.2 56.0 60 63
— — 25.7 30 27
17.0 17.1 28.7 35 27
34.0 34.1 50.1 60 46
51.0
power exhaust MCA and MOCP. Check MCA and MOCP when power exhaust is powered
through the unit (must be in accordance with NEC and/or local codes). Determine the
new MCA including the power exhaust using the following formula:
MCA New = MCA unit only + MCA of Power Exhaust
For example, using a 558FPX091000 unit with MCA = 40.1 and MOCP = 45, with
CRPWREXH030A01 power exhaust.
MCA New = 40.1 amps + 1.6 amps = 41.7 amps
If the new MCA does not exceed the published MOCP, then MOCP would not change.
The MOCP in this example is 45 amps, the MCA New is below 45, therefore the MOCP is
acceptable. If “MCA New” is larger than the published MOCP, raise the MOCP to the next
larger size. For separate power, the MOCP for the power exhaust will be 15 amps per
NEC.
POWER EXHAUST
CRPWREXH021A01 N/A 0.9 N/A 15
CRPWREXH022A01 3.3 N/A 1.32 15
CRPWREXH023A01 N/A 1.8 N/A 15
CRPWREXH028A01 1.7 N/A 0.68 15
CRPWREXH029A01 N/A 1.0 N/A 15
CRPWREXH030A01 1.6 N/A 0.64 15
HEATER
RATING
VO LTAGE
240 0.694 0.751 0.918 1.000 — — — — — — —
480 — — — — 0.626 0.840 0.918 1.000 — — —
600 — — — — — — — — 0.840 0.918 1.000
NOTE: The following equation converts kW of heat energy to Btuh: kW x 3.412 = Btuh.
EXAMPLE: 32.0 kW (at 240 v) heater on 208 v
FLA MCA MOCP† FLA LRA
51.2 58.6 70** 66
PAR T N O.
200 208 230 240 380 440 460 480 550 575 600
= 32.0 (.751 mult factor)
= 24.0 kW capacity at 208 v
POWER
SUPPLY
MCA
(230 v)
MCA
(460 v)
ACTUAL HEATER VOLTAGE
MCA
(575 v)
DISCONNECT
SIZE*
383/383
406/406
MOCP
(for separate
power source)
192
203
154
163
—12—
Table 2B — Electrical Data (Units Without Convenience Outlet) (558F091, 103, 121, 151)
558F
NOMINAL
UNIT
SIZE
FLA — Full Load Amps
HACR — Heating, Air Conditionin g and Refrigeration
IFM — Indoor (Evaporator) Fan Motor
LRA — Locked Rotor Amps
MCA — Minimum Circuit Amps
MOCP — Maxim um Overcurrent Protection
NEC — National Electrical C ode
OFM — Outdoo r (Condenser) Fan Motor
RLA — Rated Load Amps
*Used to determine minimum disconnect per NEC.
†Fuse or HACR circuit breaker per NEC.
**Fuse only.
††Compressor no. 1 is shown in table.
208/230-3-60: Com pressor no. 2 RLA is 14.1 am ps and LRA is 105 am ps.
460-3-60: Compres sor no. 2 RLA is 7.1 amps an d LRA is 55 amps.
575-3-60: Compres sor no. 2 RLA is 6.4 amps an d LRA is 40 amps.
NOTES:
1. In compliance with NEC requirem ents for multimotor a nd combination lo ad equipment ( refer to NEC
2. Unbalanced 3-Phase Supply Voltage
V-P H-H z
208/230-3-60
091
460-3-60
575-3-60
LEGEND
Articles 430 and 440), the overcurrent protective device for the unit shall be fuse or HACR breaker.
Canadian units may be fuse or circuit breaker.
Never operate a motor where a ph ase imbalance in sup ply voltage is greater than 2%.
following formula to determine the percent of voltage imbalance.
% Voltage Imbalance
= 100 x
Determine maximum deviation from average voltage.
(AB) 457 – 452 = 5 v
(BC) 464 – 457 = 7 v
(AC) 457 – 455 = 2 v
Maximum deviation is 7 v.
Determine perc ent of voltage imbalance.
% Voltage Imbalance = 100 x
This amount of phas e imbalance is satisfacto ry as it is below the max imum allowable 2%.
max voltage deviation from averag e voltage
Example: Supply voltag e is 460-3-60.
AB = 452 v
BC = 464 v
AC = 455 v
Average Voltage =
VO LTAGE
RANGE
IFM
TYPE
Min Max Qty RLA LRA Qty Hp FLA
STD
187 254 2 14 91 2
ALT 5.8
HIGH 10.6
STD
414 5 08 2 6.4 42 2
ALT 2.6
HIGH 4.8
STD
518 6 32 2 5.2 39 2
ALT 2.6
HIGH 4.8
average voltage
7
457
= 1.53%
452 + 464 + 455
1371
=
3
= 457
COMPRESSOR
(ea)
3
OFM (ea)
1
/41.4
1
/40.7
1
/40.7
IFM
FLA
5.8
2.6
2.6
Use the
MCA
(460 v)
DISCONNECT
SIZE*
MCA
(575 v)
SINGLE POINT
CRSINGLE---A00
(for separate
power source)
HEATER
MODEL NO.
CRHEATER---A00
NONE
017 7.8/10.4 21.7/ 25.0 40.1/ 40.1 45/ 45 42/ 42 229/229 006
010 12.0/16.0 33.4/ 38.5 48.9/ 55.4 50/ 60 45/ 51 229/229 006
011 18.4/24.8 51.7/ 59.7 71.9/ 81.8 80/ 90** 66/ 75 229/229 007
012 24.0/32.0 66.7/ 77.0 9 0.6/103.5 100/110** 83/ 95 229/229 007
012 and 017 31.8/42.4 88.4/102.0 117.7/13 4.8 1 25/150** 108/12 4 229/229 009
NONE —/— —/— 40.1/ 40.1 45/ 45 42/ 42 229/229 —
017 7.8/10.4 21.7/ 25.0 40.1/ 40.1 45/ 45 42/ 42 229/229 006
010 12.0/16.0 33.4/ 38.5 48.9/ 55.4 50/ 60 45/ 51 229/229 006
011 18.6/24.8 51.7/ 59.7 71.9/ 81.8 80/ 90** 66/ 75 229/229 006
012 24.0/32.0 66.7/ 77.0 9 0.6/103.5 100/110** 83/ 95 229/229 007
012 and 017 31.8/42.4 88.4/102.0 117.7/13 4.8 1 25/150** 108/12 4 229/229 009
NONE —/— —/— 44.9/ 44.9 50/ 50 48/ 48 273/273 —
017 7.8/10.4 21.7/ 25.0 44.9/ 44.9 50/ 50 48/ 48 273/273 006
010 12.0/16.0 33.4/ 38.5 54.9/ 61.4 60/ 70** 51/ 56 273/273 007
011 18.6/24.8 51.7/ 59.7 77.9/ 87.8 80/ 90** 72/ 81 273/273 007
012 24.0/32.0 66.7/ 77.0 9 6.6/109.5 100/110** 89/ 101 273 /273 007
012 and 017 32.3/42.4 88.4/102.0 123.7/14 0.8 1 25/150** 114/12 9 273/273 009
NONE — — 18.4 20 19 108 —
016 13.9 16.7 24.1 25 22 108 006
013 16.5 19.8 28.1 30 26 108 006
014 27.8 33.4 45.0 50 41 108 006
015 33.0 39.7 52.9 60 49 108 006
014 and 016 41.7 50.2 65.9 70** 61 10 8 008
NONE — — 18.4 20 19 108 —
016 13.9 16.7 24.1 25 22 108 006
013 16.5 19.8 28.1 30 26 108 006
014 27.8 33.4 45.0 50 41 108 006
015 33.0 39.7 52.9 60 49 108 006
014 and 016 41.7 50.2 65.9 70** 61 10 8 008
NONE — — 20.6 25 22 130 —
016 13.9 16.7 26.9 30 25 130 006
013 16.5 19.8 30.8 35 28 130 006
014 27.8 33.4 47.8 50 44 130 006
015 33.0 39.7 55.6 60 51 130 006
014 and 016 41.7 50.2 68.7 70** 63 11 0 008
NONE — — 14.9 20 16 97 —
018 17.0 17.1 23.9 25 22 97 006
019 34.0 34.1 45.3 40 42 97 006
NONE — — 14.9 20 16 97 —
018 17.0 17.1 23.9 25 22 97 006
019 34.0 34.1 45.3 40 42 97 006
NONE — — 16.7 20 18 114 —
018 17.0 17.1 26.1 30 24 114 006
019 34.0 34.1 47.5 45 44 114 006
IMPORTANT: If the supply voltage phase imbalance is more than 2%, contact your local electr ic utility
company immediately.
ELECTRIC HEAT POWER SUPPLY
Nominal
kW
—/— —/— 40.1/ 40.1 45/ 45 42/ 42 229/229 —
3. For units with power exhaust: If a single power source is to be used, size wire to include power
exhaust MCA and MOC P. Check MCA and MOCP whe n power exhaust is powered throu gh the
unit (must be in accordance with NEC and/or local codes). Determine the new MCA including the
power exhaust using the following form ula:
MCA New = MCA unit only + MCA of Power Exhaust
For example, using a 558FPX091000 unit with MCA = 40.1 and MOCP = 45, with
CRPWREXH030A01 power exhaust.
MCA New = 40.1 amps + 1.6 amps = 41.7 amps
If the new MCA does not exceed the published MO CP, then MOCP would not change. The MOCP
in this example is 45 amps, the MCA New is below 45, therefore the MOCP is acceptable. If “MCA
New” is larger than the published MOCP, raise the MOCP to the next larger size. For separate
power, the MOCP for the power exhaust will be 15 amps per NEC.
POWER EXHAUST
CRPWREXH021A01 N/A 0.9 N/A 15
CRPWREXH022A01 3.3 N/A 1.32 15
CRPWREXH023A01 N/A 1.8 N/A 15
CRPWREXH028A01 1.7 N/A 0.68 15
CRPWREXH029A01 N/A 1.0 N/A 15
CRPWREXH030A01 1.6 N/A 0.64 15
4. Deter mine heater capa city using multiplicatio n factors table below:
HEATER
RATING
VOLTAGE
240 0.694 0.751 0.918 1.000 — — — — — — —
480 — — — — 0.626 0.840 0.918 1.000 — — —
600 — — — — — — — — 0.840 0.918 1.000
NOTE: The following equation converts kW of heat energy to Btuh: kW x 3.412 = Btuh.
EXAMPLE: 32.0 kW (at 240 v) heater on 208 v
FLA MCA MOCP† FLA LRA
PART NO.
200 208 230 240 380 440 460 480 550 575 600
= 32.0 (.751 mult factor)
= 24.0 kW capacity at 208 v
MCA
(230 v)
ACTUAL HEATER VOLTAGE
BOX P/N
MOCP
—13—
558F
UNIT
SIZE
103
121
NOMINAL
V-P H-H z
208/230-3-60
460-3-60
575-3-60
208/230-3-60
460-3-60
575-3-60
Table 2B — Electrical Data (Units Without Convenience Outlet) (558F091, 103, 121, 151) (cont)
VOLTAGE
RANGE
IFM
TYPE
Min Max Qty RLA LRA Qty Hp FLA
STD
187 254 2 17.3†† 120†† 2
HIGH 10.6
STD
414 508 2 7.9† † 70†† 2
HIGH 4.8
STD
518 632 2 5.5† † 50†† 2
HIGH 4.8
STD
ALT 7.5
187 254 2 16 125 2
HIGH 15
STD
414 508 2 8 62.5 2
ALT 3.4
HIGH 7.4
STD
518 632 2 6.3 50 2
ALT 3.4
HIGH 7.4
COMPRESSOR
(ea)
OFM (ea)
1
/41.4
1
/40.7
1
/40.7
1
/41.4
1
/40.7
1
/40.7
HEATER
IFM
MODEL NO.
FLA
CRHEATER---A00
NONE —/— —/— 44.3/ 44.3 50/ 50 46/ 46 272/272 —
017 7.8/10.4 21.7/ 25.0 44.3/ 44.3 50/ 50 46/ 46 272/272 006
5.8
2.6
2.6
5.8
2.6
2.6
010 12. 0/16.0 33.4/ 38.5 48 .9/ 55.4 50/ 60 46/ 51 272/272 006
011 18. 6/24.8 51.7/ 59.7 71 .9/ 81.8 80/ 90** 66/ 75 272/27 2 007
012 24.0/32.0 66.7/ 77.0 90.6/103.5 100/110** 83/ 95 272/272 007
012 and 017 31.8/42. 4 88.4/102.0 117.7/134.8 125/150* * 108/124 27 2/272 009
NONE —/— —/— 49.1/ 49.1 60/ 60 52/ 52 316/316 —
017 7.8/10.4 21.7/ 25.0 49.1/ 49.1 60/ 60 52/ 52 316/316 006
010 12. 0/16.0 33.4/ 38.5 54 .9/ 61.4 60/ 70** 52/ 56 316/31 6 007
011 18. 6/24.8 51.7/ 59.7 77 .9/ 87.8 80/ 90** 72/ 81 316/31 6 007
012 24. 0/32.0 66.7/ 77.0 96 .6/109.5 100/110* * 89/101 316/ 316 007
012 and 017 31.8/42. 4 88.4/102.0 123.7/140.8 125/150* * 114/129 31 6/316 009
NONE — — 21.0 25 22 149 —
016 13.9 16.7 24.1 25 22 149 006
013 16.5 19.8 28.1 30 26 149 006
014 27.8 33.4 45.0 50 41 149 006
015 33.0 39.7 52.9 60 49 149 006
014 and 016 41.7 50.2 65 .9 70 ** 61 149 008
NONE — — 23.2 30 24 171 —
016 13.9 16.7 26.9 30 25 171 006
013 16.5 19.8 30.8 35 28 171 006
014 27.8 33.4 47.8 50 44 171 006
015 33.0 39.7 55.6 60 51 171 006
014 and 016 41.7 50.2 68 .7 70 ** 63 171 008
NONE — — 16.7 20 17 109 —
018 17.0 17.1 23.9 25 22 109 006
019 34.0 34.1 45.3 40 42 109 006
NONE — — 18.5 25 19 126 —
018 17.0 17.1 26.1 30 24 126 006
019 34.0 34.1 47.5 45 44 126 006
NONE —/— —/— 44.6/ 44.6 50/ 50 47/ 47 297/297 —
017 7.8/10.4 21.7/ 25.0 44.6/ 44.6 50/ 50 47/ 47 297/297 011
010 12. 0/16.0 33.4/ 38.5 48 .9/ 55.4 50/ 60 47/ 51 297/297 011
012 24.0/32.0 66.7/ 77.0 90.6/103.5 100/110** 83/ 95 297/297 012
012 and 017 31.8/42. 4 88.4/102.0 117.7/134.8 125/150* * 108/124 29 7/297 015
010 and 012 37.6/50. 0 104.2/120.3 137.5/157.6 150/175* * 127/145 29 7/297 015
NONE —/— —/— 46.3/ 46.3 60/ 60 49/ 49 316/316 —
017 7.8/10.4 21.7/ 25.0 46.3/ 46.3 60/ 60 49/ 49 316/316 011
010 12. 0/16.0 33.4/ 38.5 51 .1/ 57.5 60/ 60 49/ 53 316/316 011
012 24.0/32.0 66.7/ 77.0 92.8/105.6 100/110** 85/ 97 316/316 012
012 and 017 31.8/42. 4 88.4/102.0 119.9/136.9 125/150* * 110/126 31 6/316 015
010 and 012 37.6/50. 0 104.2/120.3 139.7/159.7 150/175* * 128/147 31 6/316 015
NONE —/— —/— 53.8/ 53.8 60/ 60 57/ 57 364/364 —
017 7.8/10.4 21.7/ 25.0 53.8/ 53.8 60/ 60 57/ 57 364/364 011
010 12. 0/16.0 33.4/ 38.5 60 .4/ 66.9 70/ 80** 57/ 62 364/36 4 012
012 22. 9/32.0 66.7/ 77.0 102 .1/115.0 110/125** 94/106 364/36 4 012
012 and 017 31.8/42. 4 88.4/102.0 129.2/146.3 150/150* * 119/135 36 4/364 015
010 and 012 37.6/50. 0 104.2/120.3 149.0/169.1 150/175* * 137/156 36 4/364 015
NONE — — 22.0 25 23 149 —
013 16.5 19.8 28.1 30 26 149 011
014 27.8 33.4 45.0 40 41 149 011
015 33.0 39.7 52.9 60 49 149 011
014 and 016 41.7 50.2 65 .9 70 ** 61 149 014
013 and 015 50.0 60.1 78 .4 80 ** 72 149 014
NONE — — 22.8 25 24 188 —
013 16.5 19.8 29.1 30 27 188 011
014 27.8 33.4 46.0 45 42 188 011
015 33.0 39.7 53.9 60 50 188 011
014 and 016 41.7 50.2 66 .9 70 ** 62 188 014
013 and 015 50.0 60.1 79 .4 80 ** 73 188 014
NONE — — 26.8 30 29 182 —
013 16.5 19.8 34.1 40 31 182 011
014 27.8 33.4 51.0 60 47 182 011
015 33.0 39.7 58.9 60 54 182 011
014 and 016 41.7 50.2 71 .9 80 ** 66 182 014
013 and 015 50.0 60.1 84 .4 90 ** 78 182 014
NONE — — 17.4 20 18 119 —
018 17.0 17.1 23.9 25 22 119 011
019 34.0 34.1 45.3 40 42 119 011
018 and 019 51.0 51.2 66 .6 70 ** 61 119 014
NONE — — 18.0 20 19 151 —
018 17.0 17.1 24.7 25 23 151 011
019 34.0 34.1 46.1 45 42 151 011
018 and 019 51.0 51.2 67 .4 70 ** 62 151 014
NONE — — 21.2 25 23 146 —
018 17.0 17.1 28.7 35 26 146 011
019 34.0 34.1 50.1 50 46 146 011
018 and 019 51.0 51.2 71 .4 80 ** 66 146 014
ELECTRIC HEAT POWER SUPPLY
Nominal
kW
FLA MCA MOCP† FLA LRA
DISCONNECT
SIZE*
SINGLE POINT
BOX P/N
CRSINGLE---A 00
—14—
Table 2B — Electrical Data (Units Without Convenience Outlet) (558F091, 103, 121, 151) (cont)
558F
NOMINAL
UNIT
V-P H-H z
SIZE
208/230-3-60
151
460-3-60
575-3-60
FLA — Full Load Amps
HACR — Heating, Air Conditionin g and Refrigeration
IFM — Indoor (Evaporator) Fan Motor
LRA — Locked Rotor Amps
MCA — Minimum Circuit Amps
MOCP — Maxim um Overcurrent Protection
NEC — National Electrical C ode
OFM — Outdoo r (Condenser) Fan Motor
RLA — Rated Load Amps
*Used to determine minimum disconnect per NEC.
†Fuse or HACR circuit breaker per NEC.
**Fuse only.
††Compressor no. 1 is shown in table.
208/230-3-60: Com pressor no. 2 RLA is 14.1 am ps and LRA is 105 am ps.
460-3-60: Compres sor no. 2 RLA is 7.1 amps an d LRA is 55 amps.
575-3-60: Compres sor no. 2 RLA is 6.4 amps an d LRA is 40 amps.
NOTES:
1. In compliance with NEC requirem ents for multimotor a nd combination lo ad equipment ( refer to NEC
Articles 430 and 440), the overcurrent protective device for the unit shall be fuse or HACR breaker.
Canadian units may be fuse or circuit breaker.
2. Unbalanced 3-Phase Supply Voltage
Never operate a motor where a ph ase imbalance in sup ply voltage is greater than 2%.
following formula to determine the percent of voltage imbalance.
% Voltage Imbalance
= 100 x
Determine maximum deviation from average voltage.
(AB) 457 – 452 = 5 v
(BC) 464 – 457 = 7 v
(AC) 457 – 455 = 2 v
Maximum deviation is 7 v.
Determine perc ent of voltage imbalance.
% Voltage Imbalance = 100 x
This amount of phas e imbalance is satisfacto ry as it is below the max imum allowable 2%.
LEGEND
max voltage deviation from averag e voltage
VOLTAGE
RANGE
IFM
TYPE
Min Max Qty RLA LRA Qty Hp FLA
STD
187 254 2 19 156 2
ALT 15
STD
414 508 2 9 75 2
ALT 7.4
STD
518 632 2 7.4 54 2
ALT 7.4
average voltage
Example: Supply voltag e is 460-3-60.
AB = 452 v
BC = 464 v
AC = 455 v
Average Voltage =
457
= 1.53%
7
COMPRESSOR
452 + 464 + 455
1371
=
3
= 457
(ea)
3
OFM (ea)
1
/41.4
1
/40.7
1
/40.7
IFM
FLA
10.6
HEATER
MODEL NO.
CRHEATER---A00
012 and 017 31.8/42.4 88.4/102.0 123.7/140.8 125/150** 114/129 359/359 015
010 and 012 37.6/50.0 104.2/120.3 143.5/163.6 150/175** 132/151 359/359 015
012 and 017 31.8/42.4 88.4/102.0 129.2/146.3 150/150** 119/135 378/378 015
010 and 012 37.6/50.0 104.2/120.3 149.0/169.1 150/175** 137/156 378/378 015
4.8
014 and 016 41.7 50.2 68.7 70** 63 174 014
013 and 015 50.0 60.1 81.2 90** 75 174 014
014 and 016 41.7 50.2 71.9 80** 66 213 014
013 and 015 50.0 60.1 84.4 90** 78 213 014
4.8
018 and 019 51.0 51.2 68.8 70** 63 127 014
018 and 019 51.0 51.2 71.4 80** 66 159 014
Use the
MCA
(460 v)
DISCONNECT
SIZE*
MCA
(575 v)
SINGLE POINT
BOX P/N
CRSINGLE---A0 0
MOCP
(for separate
power source)
ELECTRIC HE AT POWER SU PPLY
Nominal
NONE —/— —/— 56.2/ 56.2 70/ 70** 59/ 59 359/359 —
017 7.8/10.4 21 .7/ 25.0 56.2/ 56.2 7 0/ 70** 59/ 59 359/359 01 2
010 12.0/16.0 33.4/ 38.5 56.2/ 61.4 70/ 70** 59/ 59 359/359 012
012 24.0/32.0 66.7/ 77.0 96.6/109.5 100/110** 89/101 359/359 012
NONE —/— —/— 60.6/ 60.6 70/ 70** 64/ 64 378/378 —
017 7.8/10.4 21 .7/ 25.0 60.6/ 60.6 7 0/ 70** 64/ 64 378/378 01 2
010 12.0/16.0 33.4/ 38.5 60.6/ 66.9 70/ 80** 64/ 64 378/378 012
012 24.0/32.0 66.7/ 77.0 102.1/115.0 110/125** 94/106 378/378 012
NONE — — 26.5 30 28 174 —
013 16.5 19.8 30.8 35 28 174 011
014 27.8 33.4 47.8 45 44 174 011
015 33.0 39.7 55.6 60 51 174 011
NONE — — 29.1 35 31 213 —
013 16.5 19.8 34.1 40 31 213 011
014 27.8 33.4 51.0 60 47 213 011
015 33.0 39.7 58.9 60 54 213 011
NONE — — 21.6 25 23 127 —
018 17.0 17.1 26.1 30 24 127 011
019 34.0 34.1 47.5 45 44 127 011
NONE — — 23.7 30 25 159 —
018 17.0 17.1 28.7 35 26 159 011
019 34.0 34.1 50.1 50 46 159 011
kW
IMPORTANT: If the supply voltage phase imbalance is more than 2%, contact your local electr ic utility
company immediately.
3. For units with power exhaust: If a single power source is to be used, size wire to include power
exhaust MCA and MOC P. Check MCA and MOCP whe n power exhaust is powered throu gh the
unit (must be in accordance with NEC and/or local codes). Determine the new MCA including the
power exhaust using the following form ula:
MCA New = MCA unit only + MCA of Power Exhaust
For example, using a 558FPX091000 unit with MCA = 40.1 and MOCP = 45, with
CRPWREXH030A01 power exhaust.
MCA New = 40.1 amps + 1.6 amps = 41.7 amps
If the new MCA does not exceed the published MO CP, then MOCP would not change. The MOCP
in this example is 45 amps, the MCA New is below 45, therefore the MOCP is acceptable. If “MCA
New” is larger than the published MOCP, raise the MOCP to the next larger size. For separate
power, the MOCP for the power exhaust will be 15 amps per NEC.
4. Deter mine heater capa city using multiplicatio n factors table below:
HEATER
VOLTAGE
NOTE: The following equation converts kW of heat energy to Btuh: kW x 3.412 = Btuh.
EXAMPLE: 32.0 kW (at 240 v) heater on 208 v
FLA MCA MOCP† FLA LRA
POWER EXHAUST
PART NO.
CRPWREXH021A01 N/A 0.9 N/A 15
CRPWREXH022A01 3.3 N/A 1.32 15
CRPWREXH023A01 N/A 1.8 N/A 15
CRPWREXH028A01 1.7 N/A 0.68 15
CRPWREXH029A01 N/A 1.0 N/A 15
CRPWREXH030A01 1.6 N/A 0.64 15
RATING
200 208 230 240 380 440 460 480 550 575 600
240 0.694 0.751 0.918 1.000 — — — — — — —
480 — — — — 0.626 0.840 0.918 1.000 — — —
600 — — — — — — — — 0.840 0.918 1.000
= 32.0 (.751 mult factor)
= 24.0 kW capacity at 208 v
MCA
(230 v)
ACTUAL HEATER VOLTAGE
—15—
558F
UNIT
SIZE
090
102
NOMINAL
V-P h- Hz
208/230-3-60
460-3-60
575-3-60
208/230-3-60
460-3-60
575-3-60
Table 2C — Electrical Data (Units With Convenience Outlet) (558F090, 102, 120, 150)
VO LTAGE
RANGE
IFM
TYPE
Min Max RLA LRA Qty Hp FLA
Std
and
Alt
187 254 14.0 91.0 21/41.4
High 10.6
Std
and
Alt
414 508 6.4 42.0 21/40.7
High 4.8
Std
and
Alt
518 632 5.2 39.0 21/40.7
High 4.8
Std
187 254 16.0 137.0 21/41.4
High 10.6
Std
414 508 8.3 69.0 21/40.7
High 4.8
Std
518 632 6.4 58.0 21/40.7
High 4.8
COMPRESSOR
(ea)
OFM
(ea)
ELECTRIC
IFM
FLA
5.8
2.6
2.6
5.8
2.6
2.6
HEAT
Nominal
kW
— — 46.1/ 46.1 50/ 50 48/ 48
7.8/10.4 21.7/ 25.0 46.1/ 46.1 50/ 50 48/ 48
12.0/16.0 33.4/ 38.5 53.9/ 60.4 60/ 70** 51/ 56
18.6/24.8 51.7/ 59.7 76.9/ 86.8 80/ 90** 72/ 81
24.0/32.0 66.7/ 77.0 95.6/108.5 100/110** 89/101
31.8/42.4 88.4/102.0 122.7/139.8 125/150** 114/130
— — 50.9/ 50.9 60/ 60 53/ 53
7.8/10.4 21.7/ 25.0 50.9/ 50.9 60/ 60 53/ 53
12.0/16.0 33.4/ 38.5 59.9/ 66.4 70/ 70** 56/ 62
18.6/24.8 51.7/ 59.7 82.9/ 92.8 90/100** 77/ 86
24.0/32.0 66.7/ 77.0 101.6/114.5 110/125** 94/106
31.8/42.4 88.4/102.0 128.7/145.8 150/150** 119/135
— — 21.1 25 22
13.9 16.7 26.8 25 25
16.5 19.8 30.8 35 28
27.8 33.4 47.8 50 44
33.0 39.7 55.6 60 51
41.7 50.2 68.6 70** 63
— — 23.3 25 24
13.9 16.7 29.5 30 27
16.5 19.8 33.5 35 31
27.8 33.4 50.4 60 46
33.0 39.7 58.3 60 54
41.7 50.2 71.3 80** 66
— — 17.6 20 18
34.0 34.1 48.0 50 44
— — 19.4 25 20
34.0 34.1 50.1 60 46
— — 50.6/ 50.6 60/ 60 52/ 52
7.8/10.4 21.7/ 25.0 50.6/ 50.6 60/ 60 52/ 52
12.0/16.0 33.4/ 38.5 53.9/ 60.4 60/ 70** 52/ 56
18.6/24.8 51.7/ 59.7 76.9/ 86.8 80/ 90** 72/ 81
24.0/32.0 66.7/ 77.0 95.6/108.5 100/110** 89/101
31.8/42.4 88.4/102.0 122.7/139.8 125/150** 114/130
— — 55.4/ 55.4 60/ 60 58/ 58
7.8/10.4 21.7/ 25.0 55.4/ 55.4 60/ 60 58/ 58
12.0/16.0 33.4/ 38.5 59.9/ 66.4 70/ 70** 58/ 62
18.6/24.8 51.7/ 59.7 82.9/ 92.8 90/100** 77/ 86
24.0/32.0 66.7/ 77.0 101.6/114.5 110/125** 94/106
31.9/42.4 88.4/102.0 128.7/145.8 150/150** 119/135
— — 25.4 30 26
13.9 16.7 26.8 30 26
16.5 19.8 30.8 35 28
27.8 33.4 47.7 50 44
33.0 39.7 55.6 60 51
41.7 50.2 68.6 70** 63
— — 27.6 30 26
13.9 16.7 29.5 30 29
16.5 19.8 33.5 35 31
27.8 33.4 50.4 60 46
33.0 39.7 58.3 60 54
41.7 50.2 71.3 80** 66
— — 20.3 25 20
34.0 34.1 49.9 50 44
— — 22.1 25 22
34.0 34.1 50.1 60 46
FLA MCA MOCP† FLA LRA
POWER
SUPPLY
DISCONNECT
SIZE*
233/233
277/277
110
132
10017.0 17.1 26.6 25 24
11717.0 17.1 28.8 30 26
325/325
369/369
164
186
13817.0 17.1 26.6 25 24
15517.0 17.1 28.8 30 26
—16—
Table 2C — Electrical Data (Units With Convenience Outlet) (558F090, 102, 120, 150) (cont)
558F
UNIT
SIZE
120
NOMINAL
V-P h- Hz
208/230-3-60
460-3-60
575-3-60
VO LTAGE
RANGE
IFM
TYPE
Min Max RLA LRA Qty Hp FLA
Std
Alt 7.5
187 254 15.8 130.0 21/41.4
High 15.0
Std
Alt
414 508 7.9 64.0 21/40.7
High
Std
Alt 3.4
518 632 6.6 52.0 21/40.7
High 7.4
LEGEND
FLA — Full Load Amps
HACR — Heating, Air Conditioning and Refrigeration
IFM — Indoor (Evaporator) Fan Motor
LRA — Locked Rotor Amps
MCA — Minimum Circuit Amps
MOCP — Maximum Overcurrent Protection
NEC — National Electrical Code
OFM — Outdoor (Condenser) Fan Motor
RLA — Rated Load Amps
*Used to determine minimum disconnect per NEC.
†Fuse or HACR circuit breaker per NEC.
**Fuse only.
††Compres sor no. 1 is shown in table.
208/230-3-60: Compressor no. 2 RLA is 14.1 amps and LRA is 105 amps.
460-3-60: Compressor no. 2 RLA is 7.1 amps and LRA is 55 amps.
575-3-60: Compressor no. 2 RLA is 6.4 amps and LRA is 40 amps.
NOTES:
1. In compliance with NEC requirements for multimotor and combination load equipment (refer
to NEC Articles 430 and 440), the overcurrent protective device for the unit shall be fuse or
HACR breaker. Canadian units may be fuse or circuit breaker.
2. Unbalanced 3-Phase Supply Voltage
Never operate a motor where a phase imbalance in supply voltage is greater than 2%.
the following formula to determine the percent of voltage imbalance.
% Voltage Imbalance
= 100 x
Determine maximum deviation from average voltage.
(AB) 457 – 452 = 5 v
(BC) 464 – 457 = 7 v
(AC) 457 – 455 = 2 v
Maximum deviation is 7 v.
Determine percent of voltage imbalance.
% Voltage Imbalance = 100 x
This amount of phase imbalance is satisfactory as it is below the maximum allowable 2%.
max voltage deviation from average voltage
average voltage
Example: Supply voltage is 460-3-60.
AB = 452 v
BC = 464 v
AC = 455 v
Average Voltage =
= 1.53%
7
457
452 + 464 + 455
1371
=
3
= 457
COMPRESSOR
3
(ea)
OFM
(ea)
Use
ELECTRIC
IFM
FLA
5.8
2.6
3.4
7.4
2.6
IMPORTANT: If the supply voltage phase imbalance is more than 2%, contact your local electric
utility company immediately.
3. For units with power exhaust: If a single power source is to be used, size wire to include
4. Determine heater capacity using multiplication factors table below:
HEAT
Nominal
kW
— — 49.1/ 49.1 60/ 60 50/ 50
7.8/10.4 21.7/ 25.0 49.1/ 49.1 60/ 60 50/ 50
12.0/16.0 33.4/ 38.5 53.9/ 60.4 60/ 70** 51/ 56
24.0/32.0 66.7/ 77.0 95.6/108.5 100/110** 89/101
31.8/42.4 88.4/102.0 122.7/139.8 125/150** 114/130
37.6/50.0 104.2/120.3 142.5/132.5 150/150** 132/151
— — 50.8/ 50.8 60/ 60 52/ 52
7.8/10.4 21.7/ 25.0 50.8/ 50.8 60/ 60 52/ 52
12.0/16.0 33.4/ 38.5 56.1/ 62.5 60/ 60 53/ 58
24.0/32.0 66.7/ 77.0 97.8/110.6 100/125** 91/103
31.8/42.4 88.4/102.0 124.9/141.9 125/150** 116/131
37.6/50.0 104.2/120.3 144.7/134.7 150/150** 134/152
— — 58.3/ 58.3 70/ 70** 61/ 61
7.8/10.4 21.7/ 25.0 58.3/ 58.3 70/ 70** 61/ 61
12.0/16.0 33.4/ 38.5 65.4/ 71.9 60/ 80** 61/ 67
24.0/32.0 66.7/ 77.0 107.1/120.0 110/125** 99/111
31.8/42.4 88.4/102.0 134.2/151.3 150/175** 124/140
37.6/50.0 104.2/120.3 154.0/144.0 175/175** 143/161
— — 23.73024
16.5 19.8 30.7 30 28
27.8 33.4 47.8 50 44
33.0 39.7 55.5 60 51
41.7 50.2 68.6 70** 63
50.0 60.1 65.6 70** 75
— — 24.53025
16.5 19.8 31.7 30 29
27.8 33.4 48.8 50 45
33.0 39.7 56.6 60 52
41.7 50.2 69.7 70** 64
50.0 60.1 66.6 70** 76
— — 28.53030
16.5 19.8 36.7 35 34
27.8 33.4 53.8 60 49
33.0 39.7 61.5 70** 57
41.7 50.2 74.6 80** 69
50.0 60.1 71.6 80** 80
— — 20.62521
17.0 17.1 26.6 25 24
34.0 34.1 47.9 50 44
51.0 51.2 56.0 60 63
— — 21.22521
17.0 17.1 27.4 30 25
34.0 34.1 48.8 50 44
51.0 51.2 56.8 60 64
— — 24.43025
17.0 17.1 31.4 35 28
34.0 34.1 52.7 60 48
51.0 51.2 60.8 70** 68
power exhaust MCA and MOCP. Check MCA and MOCP when power exhaust is powered
through the unit (must be in accordance with NEC and/or local codes). Determine the
new MCA including the power exhaust using the following formula:
MCA New = MCA unit only + MCA of Power Exhaust
For example, using a 558FPX091000 unit with MCA = 40.1 and MOCP = 45, with
CRPWREXH030A01 power exhaust.
MCA New = 40.1 amps + 1.6 amps = 41.7 amps
If the new MCA does not exceed the published MOCP, then MOCP would not change.
The MOCP in this example is 45 amps, the MCA New is below 45, therefore the MOCP is
acceptable. If “MCA New” is larger than the published MOCP, raise the MOCP to the next
larger size. For separate power, the MOCP for the power exhaust will be 15 amps per
NEC.
POWER EXHAUST
CRPWREXH021A01 N/A 0.9 N/A 15
CRPWREXH022A01 3.3 N/A 1.32 15
CRPWREXH023A01 N/A 1.8 N/A 15
CRPWREXH028A01 1.7 N/A 0.68 15
CRPWREXH029A01 N/A 1.0 N/A 15
CRPWREXH030A01 1.6 N/A 0.64 15
HEATER
RATING
VO LTAGE
240 0.694 0.751 0.918 1.000 — — — — — — —
480 — — — — 0.626 0.840 0.918 1.000 — — —
600 — — — — — — — — 0.840 0.918 1.000
NOTE: The following equation converts kW of heat energy to Btuh: kW x 3.412 = Btuh.
EXAMPLE: 32.0 kW (at 240 v) heater on 208 v
FLA MCA MOCP† FLA LRA
PAR T N O.
200 208 230 240 380 440 460 480 550 575 600
= 32.0 (.751 mult factor)
= 24.0 kW capacity at 208 v
POWER
SUPPLY
MCA
(230 v)
MCA
(460 v)
ACTUAL HEATER VOLTAGE
MCA
(575 v)
DISCONNECT
SIZE*
311/311
330/330
378/378
MOCP
(for separate
power source)
154
194
188
110
141
136
—17—
Table 2C — Electrical Data (Units With Convenience Outlet) (558F090, 102, 120, 150) (cont)
558F
UNIT
SIZE
150
NOMINAL
V-P h- Hz
208/230-3-60
460-3-60
575-3-60
VO LTAGE
RANGE
IFM
TYPE
Min Max RLA LRA Qty Hp FLA
Std
187 254 23.0 146.0 21/41.4
Alt 15.0
Std
414 508 10.4 73.0 21/40.7
Alt 7.4
Std
518 632 8.3 58.4 21/40.7
Alt 7.4
LEGEND
FLA — Full Load Amps
HACR — Heating, Air Conditioning and Refrigeration
IFM — Indoor (Evaporator) Fan Motor
LRA — Locked Rotor Amps
MCA — Minimum Circuit Amps
MOCP — Maximum Overcurrent Protection
NEC — National Electrical Code
OFM — Outdoor (Condenser) Fan Motor
RLA — Rated Load Amps
*Used to determine minimum disconnect per NEC.
†Fuse or HACR circuit breaker per NEC.
**Fuse only.
††Compres sor no. 1 is shown in table.
208/230-3-60: Compressor no. 2 RLA is 14.1 amps and LRA is 105 amps.
460-3-60: Compressor no. 2 RLA is 7.1 amps and LRA is 55 amps.
575-3-60: Compressor no. 2 RLA is 6.4 amps and LRA is 40 amps.
NOTES:
1. In compliance with NEC requirements for multimotor and combination load equipment (refer
to NEC Articles 430 and 440), the overcurrent protective device for the unit shall be fuse or
HACR breaker. Canadian units may be fuse or circuit breaker.
2. Unbalanced 3-Phase Supply Voltage
Never operate a motor where a phase imbalance in supply voltage is greater than 2%.
the following formula to determine the percent of voltage imbalance.
% Voltage Imbalance
= 100 x
Determine maximum deviation from average voltage.
(AB) 457 – 452 = 5 v
(BC) 464 – 457 = 7 v
(AC) 457 – 455 = 2 v
Maximum deviation is 7 v.
Determine percent of voltage imbalance.
% Voltage Imbalance = 100 x
This amount of phase imbalance is satisfactory as it is below the maximum allowable 2%.
max voltage deviation from average voltage
average voltage
Example: Supply voltage is 460-3-60.
AB = 452 v
BC = 464 v
AC = 455 v
Average Voltage =
= 1.53%
=
7
457
452 + 464 + 455
1371
3
= 457
COMPRESSOR
3
(ea)
OFM
(ea)
Use
ELECTRIC
IFM
FLA
10.6
4.8
4.8
IMPORTANT: If the supply voltage phase imbalance is more than 2%, contact your local electric
utility company immediately.
3. For units with power exhaust: If a single power source is to be used, size wire to include
4. Determine heater capacity using multiplication factors table below:
HEAT
Nominal
kW
— — 71.2/ 71.2 80/ 80** 74/ 74
7.8/10.4 21.7/ 25.0 71.2/ 71.2
12.0/16.0 33.4/ 38.5 71.2/ 71.2
24.0/32.0 66.7/ 77.0 101.6/114.5
31.8/42.4 88.4/102.0 128.7/145.8
37.6/50.0 104.2/120.3 148.5/138.5
— — 75.6/ 75.6 90/ 80** 79/ 79
7.8/10.4 21.7/ 25.0 75.6/ 75.6
12.0/16.0 33.4/ 38.5 75.6/ 75.6
24.0/32.0 66.7/ 77.0 107.1/120.0
31.8/42.4 88.4/102.0 134.2/151.3
37.6/50.0 104.2/120.3 154.0/144.0
— — 32.3 45 34
16.5 19.8 33.4 45 34
27.8 33.4 50.5 60 46
33.0 39.7 58.2 60 54
41.7 50.2 71.4
50.0 60.1 68.3
— — 34.9 45 37
16.5 19.8 36.7 45 37
27.8 33.4 53.8 60 49
33.0 39.7 61.6
41.7 50.2 74.7
50.0 60.1 71.6
— — 23.6 30 27
17.0 17.1 28.8 30 27
34.0 34.1 50.1 60 46
51.0 51.2 56.0 70** 65
— — 28.4 30 29
17.0 17.1 31.4 35 29
34.0 34.1 52.8 60 48
51.0 51.2 58.6 70** 68
power exhaust MCA and MOCP. Check MCA and MOCP when power exhaust is powered
through the unit (must be in accordance with NEC and/or local codes). Determine the
new MCA including the power exhaust using the following formula:
MCA New = MCA unit only + MCA of Power Exhaust
For example, using a 558FPX091000 unit with MCA = 40.1 and MOCP = 45, with
CRPWREXH030A01 power exhaust.
MCA New = 40.1 amps + 1.6 amps = 41.7 amps
If the new MCA does not exceed the published MOCP, then MOCP would not change.
The MOCP in this example is 45 amps, the MCA New is below 45, therefore the MOCP is
acceptable. If “MCA New” is larger than the published MOCP, raise the MOCP to the next
larger size. For separate power, the MOCP for the power exhaust will be 15 amps per
NEC.
POWER EXHAUST
CRPWREXH021A01 N/A 0.9 N/A 15
CRPWREXH022A01 3.3 N/A 1.32 15
CRPWREXH023A01 N/A 1.8 N/A 15
CRPWREXH028A01 1.7 N/A 0.68 15
CRPWREXH029A01 N/A 1.0 N/A 15
CRPWREXH030A01 1.6 N/A 0.64 15
HEATER
RATING
VO LTAGE
240 0.694 0.751 0.918 1.000 — — — — — — —
480 — — — — 0.626 0.840 0.918 1.000 — — —
600 — — — — — — — — 0.840 0.918 1.000
NOTE: The following equation converts kW of heat energy to Btuh: kW x 3.412 = Btuh.
EXAMPLE: 32.0 kW (at 240 v) heater on 208 v
FLA MCA M OCP† FLA LRA
PAR T N O.
200 208 230 240 380 440 460 480 550 575 600
= 32.0 (.751 mult factor)
= 24.0 kW capacity at 208 v
POWER
SUPPLY
80/ 80**
80/ 80**
110/125**
150/150**
150/150**
90/ 80**
90/ 80**
110/125**
150/175**
175/175**
80**
80**
70**
80**
80**
MCA
(230 v)
MCA
(460 v)
ACTUAL HEATER VOLTAGE
MCA
(575 v)
DISCONNECT
SIZE*
74/ 74
74/ 74
94/106
119/135
138/156
79/ 79
79/ 79
99/111
124/140
143/161
66
77
57
69
80
(for separate
power source)
387/387
410/410
195
206
156
165
MOCP
—18—
Table 2D — Electrical Data (Units With Convenience Outlet) (558F091, 103, 121, 151)
558F
NOMINAL
UNIT
V-P H-H z
SIZE
208/230-3-60
091
460-3-60
575-3-60
FLA — Full Load Amps
HACR — Heating, Air Conditionin g and Refrigeration
IFM — Indoor (Evaporator) Fan Motor
LRA — Locked Rotor Amps
MCA — Minimum Circuit Amps
MOCP — Maxim um Overcurrent Protection
NEC — National Electrical C ode
OFM — Outdoo r (Condenser) Fan Motor
RLA — Rated Load Amps
*Used to determine minimum disconnect per NEC.
†Fuse or HACR circuit breaker per NEC.
**Fuse only.
††Compressor no. 1 is shown in table.
208/230-3-60: Com pressor no. 2 RLA is 14.1 am ps and LRA is 105 am ps.
460-3-60: Compres sor no. 2 RLA is 7.1 amps an d LRA is 55 amps.
575-3-60: Compres sor no. 2 RLA is 6.4 amps an d LRA is 40 amps.
NOTES:
1. In compliance with NEC requirem ents for multimotor a nd combination lo ad equipment ( refer to NEC
Articles 430 and 440), the overcurrent protective device for the unit shall be fuse or HACR breaker.
Canadian units may be fuse or circuit breaker.
2. Unbalanced 3-Phase Supply Voltage
Never operate a motor where a ph ase imbalance in sup ply voltage is greater than 2%.
following formula to determine the percent of voltage imbalance.
% Voltage Imbalance
= 100 x
Determine maximum deviation from average voltage.
(AB) 457 – 452 = 5 v
(BC) 464 – 457 = 7 v
(AC) 457 – 455 = 2 v
Maximum deviation is 7 v.
Determine perc ent of voltage imbalance.
% Voltage Imbalance = 100 x
This amount of phas e imbalance is satisfacto ry as it is below the max imum allowable 2%.
LEGEND
max voltage deviation from averag e voltage
Example: Supply voltag e is 460-3-60.
AB = 452 v
BC = 464 v
AC = 455 v
VO LTAGE
RANGE
IFM
TYPE
Min Max Qty RLA LR A Qty Hp FLA
STD
187 254 2 14 91 2
ALT 5.8
HIGH 10.6
STD
414 508 2 6.4 42 2
ALT 2.6
HIGH 4.8
STD
518 632 2 5.2 39 2
ALT 2.6
HIGH 4.8
average voltage
Average Voltage =
7
457
= 1.53%
452 + 464 + 455
1371
=
3
= 457
COMPRESSOR
(ea)
3
OFM (ea)
1
/41.4
1
/40.7
1
/40.7
IFM
FLA
5.8
2.6
2.6
Use the
CRHEATER---A00
MCA
(460 v)
DISCONNECT
SIZE*
MCA
(575 v)
SINGLE POINT
BOX P/N
CRSINGLE---A0 0
MOCP
(for separate
power source)
HEATER
MODEL NO.
NONE —/— —/— 44.9/ 44.9 50/ 50 48/ 48 234/234 —
017 7.8/10.4 21.7/ 25.0 44.9/ 44.9 50/ 50 48/ 48 234/234 006
010 12.0/16.0 33.4/ 38.5 55 .0/ 60.8 60/ 60 51/ 56 234/234 006
011 18.4/24.8 51.7/ 59.7 77 .9/ 87.3 80/ 90** 72/ 81 234/234 007
012 24.0/32.0 66.7/ 77.0 96.6/108.9 100/110** 89/101 234/234 009
012 and 017 31.8/42.4 88.4/102.0 123.7/140.2 125/150** 114/130 234/234 009
NONE —/— —/— 44.9/ 44.9 50/ 50 48/ 48 234/234 —
017 7.8/10.4 21.7/ 25.0 44.9/ 44.9 50/ 50 48/ 48 234/234 006
010 12.0/16.0 33.4/ 38.5 55 .0/ 60.8 60/ 60 51/ 56 234/234 006
011 18.6/24.8 51.7/ 59.7 77 .9/ 87.3 80/ 90** 72/ 81 234/234 007
012 24.0/32.0 66.7/ 77.0 96.6/108.9 100/110** 89/101 234/234 007
012 and 017 31.8/42.4 88.4/102.0 123.7/140.2 125/150** 114/130 234/234 009
NONE —/— —/— 49.7/ 49.7 60/ 60 53/ 53 277/277 —
017 7.8/10.4 21.7/ 25.0 49.7/ 50.0 60/ 60 53/ 53 277/277 006
010 12.0/16.0 33.4/ 38.5 61 .0/ 66.8 70/ 70** 56/ 61 277/277 007
011 18.6/24.8 51.7/ 59.7 83.9/ 93.3 90/100** 77/ 86 277/277 007
012 24.0/32.0 66.7/ 77.0 102.6/114.9 110/125** 94 /106 277/ 277 007
012 and 017 32.3/42.4 88.4/102.0 129.7/146.2 150/150** 119/135 277/277 009
NONE — — 20.6 25 22 110 —
016 13.9 16.7 26.9 25 25 110 006
013 16.5 19.8 28.1 30 28 110 006
014 27.8 33.4 47.8 50 44 110 006
015 33.0 39.7 55.6 60 51 110 006
014 and 016 41.7 50.2 68.7 70** 63 110 008
NONE — — 20.6 25 22 110 —
016 13.9 16.7 26.9 25 25 110 006
013 16.5 19.8 28.1 30 28 110 006
014 27.8 33.4 47.8 50 44 110 006
015 33.0 39.7 55.6 60 51 110 006
014 and 016 41.7 50.2 68.7 70** 63 110 008
NONE — — 22.8 25 24 132 —
016 13.9 16.7 29.6 30 27 132 006
013 16.5 19.8 30.8 35 31 132 006
014 27.8 33.4 50.5 60 46 132 006
015 33.0 39.7 58.3 60 54 132 006
014 and 016 41.7 50.2 71.4 80** 66 132 008
NONE — — 16.6 20 18 99 —
018 17.0 17.1 26.1 25 24 99 006
019 34.0 34.1 47.4 45 44 99 006
NONE — — 16.6 20 18 99 —
018 17.0 17.1 26.1 25 24 99 006
019 34.0 34.1 47.4 45 44 99 006
NONE — — 18.4 20 20 116 —
018 17.0 17.1 28.3 30 26 116 006
019 34.0 34.1 49.6 45 46 116 006
IMPORTANT: If the supply voltage phase imbalance is more than 2%, contact your local electr ic utility
company immediately.
ELECTRIC H EAT POWER SUPPLY
Nominal
kW
3. For units with power exhaust: If a single power source is to be used, size wire to include power
exhaust MCA and MOC P. Check MCA and MOCP whe n power exhaust is powered throu gh the
unit (must be in accordance with NEC and/or local codes). Determine the new MCA including the
power exhaust using the following form ula:
MCA New = MCA unit only + MCA of Power Exhaust
For example, using a 558FPX091000 unit with MCA = 40.1 and MOCP = 45, with
CRPWREXH030A01 power exhaust.
MCA New = 40.1 amps + 1.6 amps = 41.7 amps
If the new MCA does not exceed the published MO CP, then MOCP would not change. The MOCP
in this example is 45 amps, the MCA New is below 45, therefore the MOCP is acceptable. If “MCA
New” is larger than the published MOCP, raise the MOCP to the next larger size. For separate
power, the MOCP for the power exhaust will be 15 amps per NEC.
CRPWREXH021A01 N/A 0.9 N/A 15
CRPWREXH022A01 3.3 N/A 1.32 15
CRPWREXH023A01 N/A 1.8 N/A 15
CRPWREXH028A01 1.7 N/A 0.68 15
CRPWREXH029A01 N/A 1.0 N/A 15
CRPWREXH030A01 1.6 N/A 0.64 15
4. Deter mine heater capa city using multiplicatio n factors table below:
HEATER
RATING
VOLTAGE
240 0.694 0.751 0.918 1.000 — — — — — — —
480 — — — — 0.626 0.840 0.918 1.000 — — —
600 — — — — — — — — 0.840 0.918 1.000
NOTE: The following equation converts kW of heat energy to Btuh: kW x 3.412 = Btuh.
EXAMPLE: 32.0 kW (at 240 v) heater on 208 v
FLA MCA MOC P† FLA LRA
POWER EXHAUST
PART NO.
200 208 230 240 380 440 460 480 550 575 600
= 32.0 (.751 mult factor)
= 24.0 kW capacity at 208 v
MCA
(230 v)
ACTUAL HEATER VOLTAGE
—19—
558F
UNIT
SIZE
103
121
NOMINAL
V-P H-H z
208/230-3-60
460-3-60
575-3-60
208/230-3-60
460-3-60
575-3-60
Table 2D — Electrical Data (Units With Convenience Outlet) (558F091, 103, 121, 151) (cont)
VOLTAGE
RANGE
IFM
TYPE
Min Max Qty RLA LRA Qty Hp FLA
STD
187 254 2 17.3†† 120†† 2
HIGH 10.6
STD
414 508 2 7.9† † 70†† 2
HIGH 4.8
STD
518 632 2 5.5† † 50†† 2
HIGH 4.8
STD
ALT 7.5
187 254 2 16 125 2
HIGH 15
STD
414 508 2 8 62.5 2
ALT 3.4
HIGH 7.4
STD
518 632 2 6.3 50 2
ALT 3,4
HIGH 7.4
COMPRESSOR
(ea)
OFM (ea)
1
/41.4
1
/40.7
1
/40.7
1
/41.4
1
/40.7
1
/40.7
HEATER
IFM
MODEL NO.
FLA
CRHEATER---A00
NONE —/— —/— 49.1/ 49.1 60/ 60 52/ 52 277/277 —
017 7.8/10.4 21.7/ 25.0 49.1/ 49.1 6 0/ 60 52/ 52 27 7/277 006
5.8
2.6
2.6
5.8
2.6
2.6
010 12. 0/16.0 33.4/ 38.5 55 .0/ 60.8 60/ 60 52/ 56 277/277 006
011 18. 6/24.8 51.7/ 59.7 77 .9/ 87.3 80/ 90** 72/ 81 277/27 7 007
012 24. 0/32.0 66.7/ 77.0 96 .6/108.9 100/11 0** 89/101 277/277 007
012 and 017 31.8/42.4 88.4/102.0 123.7/140.2 125/150** 114/130 277/277 009
NONE —/— —/— 53.9/ 53.9 60/ 60 57/ 57 320/320 —
017 7.8/10.4 21.7/ 25.0 53.9/ 53.9 6 0/ 60 57/ 57 32 0/320 006
010 12. 0/16.0 33.4/ 38.5 61 .0/ 66.8 70/ 70** 57/ 61 320/32 0 007
011 18.6/24.8 51.7/ 59.7 83.9/ 93.3 90/100** 77/ 86 320/320 007
012 24. 0/32.0 66.7/ 77.0 102 .6/114.9 110/125** 94/106 320/320 007
012 and 017 31.8/42.4 88.4/102.0 129.7/146.2 150/150** 119/135 320/320 009
NONE — — 23.2 30 24 151 —
016 13.9 16.7 26.9 30 25 151 006
013 16.5 19.8 28.1 30 28 151 006
014 27.8 33.4 47.8 50 44 151 006
015 33.0 39.7 55.6 60 51 151 006
014 and 016 41.7 50.2 68 .7 70 ** 63 151 008
NONE — — 25.4 30 27 173 —
016 13.9 16.7 29.6 30 27 173 006
013 16.5 19.8 30.8 35 31 173 006
014 27.8 33.4 50.5 60 46 173 006
015 33.0 39.7 58.3 60 54 173 006
014 and 016 41.7 50.2 71 .4 80 ** 66 173 008
NONE — — 18.4 25 19 111 —
018 17.0 17.1 26.1 25 24 111 006
019 34.0 34.1 47.4 45 44 111 006
NONE — — 20.2 25 21 128 —
018 17.0 17.1 28.3 30 26 128 006
019 34.0 34.1 49.6 45 46 128 006
NONE —/— —/— 49.4/ 49.4 60/ 60 52/ 52 302/302 —
017 7.8/10.4 21.7/ 25.0 49.4/ 49.4 6 0/ 60 52/ 52 30 2/302 011
010 12. 0/16.0 33.4/ 38.5 55 .0/ 60.8 60/ 60 52/ 56 302/302 011
012 24. 0/32.0 66.7/ 77.0 96 .6/108.9 100/11 0** 89/101 302/302 012
012 and 017 31.8/42.4 88.4/102.0 123.7/140.2 125/150** 114/130 302/302 015
010 and 012 37.6/50. 0 104.2/120.3 143.6/163.0 150/17 5** 132/151 302/30 2 015
NONE —/— —/— 51.1/ 51.1 60/ 60 54/ 54 321/321 —
017 7.8/10.4 21.7/ 25.0 51.1/ 51.1 6 0/ 60 54/ 54 32 1/321 011
010 12. 0/16.0 33.4/ 38.5 57 .1/ 62.9 60/ 60 54/ 58 321/321 011
012 24. 0/32.0 66.7/ 77.0 98 .8/111.0 100/12 5** 91/103 321/321 012
012 and 017 31.8/42.4 88.4/102.0 125.9/142.3 150/150** 116/131 321/321 015
010 and 012 37.6/50. 0 104.2/120.3 145.7/165.2 150/17 5** 134/152 321/32 1 015
NONE —/— —/— 58.6/ 68.6 70/ 70** 63/ 63 369/369 —
017 7.8/10.4 21.7/ 25.0 58.6/ 58.6 7 0/ 70** 6 3/ 63 369/369 012
010 12. 0/16.0 33.4/ 38.5 66 .5/ 72.3 80/ 80** 63/ 67 369/36 9 012
012 22. 9/32.0 66.7/ 77.0 108 .1/120.4 110/125** 99/111 369/369 012
012 and 017 31.8/42.4 88.4/102.0 135.2/151.7 150/175** 124/140 369/369 015
010 and 012 37.6/50. 0 104.2/120.3 155.1/174.5 175/17 5** 143/161 369/36 9 015
NONE — — 24.2 30 26 151 —
013 16.5 19.8 30.8 30 28 151 011
014 27.8 33.4 45.0 40 44 151 011
015 33.0 39.7 55.6 60 51 151 011
014 and 016 41.7 50.2 68 .7 70 ** 63 151 014
013 and 015 50.0 60.1 81 .1 90 ** 75 151 014
NONE — — 25.0 30 26 190 —
013 16.5 19.8 31.8 30 29 190 011
014 27.8 33.4 46.0 45 45 190 011
015 33.0 39.7 56.6 60 52 190 011
014 and 016 41.7 50.2 69 .7 70 ** 64 190 014
013 and 015 50.0 60.1 82 .1 90 ** 76 190 014
NONE — — 29.0 35 31 184 —
013 16.5 19.8 36.8 40 34 184 011
014 27.8 33.4 51.0 60 49 184 011
015 33.0 39.7 61.6 70** 57 184 014
014 and 016 41.7 50.2 74 .7 80 ** 69 184 014
013 and 015 50.0 60.1 87 .1 90 ** 80 184 014
NONE — — 19.1 25 20 121 —
018 17.0 17.1 26.1 25 24 121 011
019 34.0 34.1 47.4 45 44 121 011
018 and 019 51.0 51.2 68 .8 70 ** 63 121 014
NONE — — 19.7 25 21 152 —
018 17.0 17.1 26.9 25 25 152 011
019 34.0 34.1 48.2 45 44 152 011
018 and 019 51.0 51.2 69 .6 70 ** 64 152 014
NONE — — 22.9 25 25 148 —
018 17.0 17.1 30.9 35 28 148 011
019 34.0 34.1 52.2 50 48 148 011
018 and 019 51.0 51.2 73 .6 80 ** 68 148 014
ELECTRIC HEAT POWER SUPPLY
Nominal
kW
FLA MCA MOCP† FLA LRA
DISCONNECT
SIZE*
SINGLE POINT
BOX P/N
CRSINGLE---A 00
—20—
Table 2D — Electrical Data (Units With Convenience Outlet) (558F091, 103, 121, 151) (cont)
558F
NOMINAL
UNIT
V-P H-H z
SIZE
208/230-3-60
151
460-3-60
575-3-60
FLA — Full Load Amps
HACR — Heating, Air Conditionin g and Refrigeration
IFM — Indoor (Evaporator) Fan Motor
LRA — Locked Rotor Amps
MCA — Minimum Circuit Amps
MOCP — Maxim um Overcurrent Protection
NEC — National Electrical C ode
OFM — Outdoo r (Condenser) Fan Motor
RLA — Rated Load Amps
*Used to determine minimum disconnect per NEC.
†Fuse or HACR circuit breaker per NEC.
**Fuse only.
††Compressor no. 1 is shown in table.
208/230-3-60: Com pressor no. 2 RLA is 14.1 am ps and LRA is 105 am ps.
460-3-60: Compres sor no. 2 RLA is 7.1 amps an d LRA is 55 amps.
575-3-60: Compres sor no. 2 RLA is 6.4 amps an d LRA is 40 amps.
NOTES:
1. In compliance with NEC requirem ents for multimotor a nd combination lo ad equipment ( refer to NEC
Articles 430 and 440), the overcurrent protective device for the unit shall be fuse or HACR breaker.
Canadian units may be fuse or circuit breaker.
2. Unbalanced 3-Phase Supply Voltage
Never operate a motor where a ph ase imbalance in sup ply voltage is greater than 2%.
following formula to determine the percent of voltage imbalance.
% Voltage Imbalance
= 100 x
Determine maximum deviation from average voltage.
(AB) 457 – 452 = 5 v
(BC) 464 – 457 = 7 v
(AC) 457 – 455 = 2 v
Maximum deviation is 7 v.
Determine perc ent of voltage imbalance.
% Voltage Imbalance = 100 x
This amount of phas e imbalance is satisfacto ry as it is below the max imum allowable 2%.
LEGEND
max voltage deviation from averag e voltage
VOLTAGE
RANGE
IFM
TYPE
Min Max Qty RLA LRA Qty Hp FLA
STD
187 254 2 19 156 2
ALT 15
STD
414 508 2 9 75 2
ALT 7.4
STD
518 632 2 7.4 54 2
ALT 7.4
average voltage
Example: Supply voltag e is 460-3-60.
AB = 452 v
BC = 464 v
AC = 455 v
Average Voltage =
457
= 1.53%
7
COMPRESSOR
452 + 464 + 455
1371
=
3
= 457
(ea)
3
OFM (ea)
1
/41.4
1
/40.7
1
/40.7
IFM
FLA
10.6
HEATER
MODEL NO.
CRHEATER---A00
012 and 017 31.8/42.4 88.4/102.0 129.7/146.2 150/150** 119/135 364/364 015
010 and 012 37.6/50.0 104.2/120.3 149.6/169.0 150/175** 138/156 364/364 015
012 and 017 31.8/42.4 88.4/102.0 135.2/151.7 150/175** 124/140 383/383 015
010 and 012 37.6/50.0 104.2/120.3 155.1/174.5 175/175** 143/161 383/383 015
4.8
014 and 016 41.7 50.2 71.4 80** 66 176 014
013 and 015 50.0 60.1 83.9 90** 77 176 014
014 and 016 41.7 50.2 74.7 80** 69 215 014
013 and 015 50.0 60.1 87.1 90** 80 215 014
4.8
018 and 019 51.0 51.2 71.0 80** 65 129 014
018 and 019 51.0 51.2 73.6 80** 68 160 014
Use the
MCA
(460 v)
DISCONNECT
SIZE*
MCA
(575 v)
SINGLE POINT
BOX P/N
CRSINGLE---A0 0
MOCP
(for separate
power source)
ELECTRIC HE AT POWER SU PPLY
Nominal
NONE —/— —/— 61.0/ 61.0 70/ 70** 65/ 65 364/364 —
017 7.8/10.4 21 .7/ 25.0 61.0/ 61.0 7 0/ 70** 65/ 65 364/364 01 2
010 12.0/16.0 33.4/ 38.5 61.0/ 66.8 70/ 70** 65/ 65 364/364 012
012 24.0/32.0 66.7/ 77.0 102.6/114.9 110/125** 94/106 364/364 012
NONE —/— —/— 65.4/ 65.4 80/ 80** 70/ 70 383/383 —
017 7.8/10.4 21 .7/ 25.0 65.4/ 65.4 8 0/ 80** 70/ 70 383/383 01 2
010 12.0/16.0 33.4/ 38.5 66.5/ 72.3 80/ 80** 70/ 70 383/383 012
012 24.0/32.0 66.7/ 77.0 108.1/120.4 110/125** 99/111 383/383 012
NONE — — 28.7 35 30 176 —
013 16.5 19.8 33.5 35 31 176 011
014 27.8 33.4 47.8 45 46 176 011
015 33.0 39.7 58.3 60 54 176 011
NONE — — 31.3 35 33 215 —
013 16.5 19.8 36.8 40 34 215 011
014 27.8 33.4 51.0 60 49 215 011
015 33.0 39.7 61.6 70** 57 215 014
NONE — — 23.3 30 25 129 —
018 17.0 17.1 28.3 30 26 129 011
019 34.0 34.1 49.6 45 46 129 011
NONE — — 25.4 30 27 160 —
018 17.0 17.1 30.9 35 28 160 011
019 34.0 34.1 52.2 50 48 160 011
kW
IMPORTANT: If the supply voltage phase imbalance is more than 2%, contact your local electr ic utility
company immediately.
3. For units with power exhaust: If a single power source is to be used, size wire to include power
exhaust MCA and MOC P. Check MCA and MOCP whe n power exhaust is powered throu gh the
unit (must be in accordance with NEC and/or local codes). Determine the new MCA including the
power exhaust using the following form ula:
MCA New = MCA unit only + MCA of Power Exhaust
For example, using a 558FPX091000 unit with MCA = 40.1 and MOCP = 45, with
CRPWREXH030A01 power exhaust.
MCA New = 40.1 amps + 1.6 amps = 41.7 amps
If the new MCA does not exceed the published MO CP, then MOCP would not change. The MOCP
in this example is 45 amps, the MCA New is below 45, therefore the MOCP is acceptable. If “MCA
New” is larger than the published MOCP, raise the MOCP to the next larger size. For separate
power, the MOCP for the power exhaust will be 15 amps per NEC.
4. Deter mine heater capa city using multiplicatio n factors table below:
HEATER
VOLTAGE
NOTE: The following equation converts kW of heat energy to Btuh: kW x 3.412 = Btuh.
EXAMPLE: 32.0 kW (at 240 v) heater on 208 v
FLA MCA MOCP† FLA LRA
POWER EXHAUST
PART NO.
CRPWREXH021A01 N/A 0.9 N/A 15
CRPWREXH022A01 3.3 N/A 1.32 15
CRPWREXH023A01 N/A 1.8 N/A 15
CRPWREXH028A01 1.7 N/A 0.68 15
CRPWREXH029A01 N/A 1.0 N/A 15
CRPWREXH030A01 1.6 N/A 0.64 15
RATING
200 208 230 240 380 440 460 480 550 575 600
240 0.694 0.751 0.918 1.000 — — — — — — —
480 — — — — 0.626 0.840 0.918 1.000 — — —
600 — — — — — — — — 0.840 0.918 1.000
= 32.0 (.751 mult factor)
= 24.0 kW capacity at 208 v
MCA
(230 v)
ACTUAL HEATER VOLTAGE
—21—
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