Carrier 19 User Manual

Carrier

A Packaged Hermetic

Centrifugal Liquid Chillers

19

Series

100-2000 tons

(352-7034 kW)

■ ■ I

On stream, on budget with energy-saving solutions to comfort air conditioning and process cooling challenges!

Form 1 9-2P

The 19 Series: Built to save energy, save you money and get the job done right

Dr. Willis Carrier invented centrifugal refrigeration in 1922 and today, more than half a century and 25,000 machines later. Carrier hermetic centrifugal liquid chillers still lead

the way in comfort air conditioning and process cooling. What’s more, the modern day 19 Series centrifugals are specifically designed to afford significant dollar savings on

utility bills, in every way possible.

The Carrier 19 Series centrifugal design philosophy has

always been to offer a variable line which meets each unique

specification while at the same time maintaining low first costs and low operating costs. Incorporated in this philosophy are such features as the 19 Series inline impeller design, hermetically sealed compressor-motors, gear drives and refrigerant options. The success of this concept can be seen in the 25,000 plus machines which have been applied to date.

Carrier’s hermetic centrifugals have always used various refrigerants at different tonnage ranges in order to keep the heat exchanger size and cost down. Now, over and above the low first cost concept, Carrier offers refrigerant options to meet your specific job requirements in the most efficient way possible.

Tbe full hermetic line consists of four models, each with

a cycle, refrigerant and tonnage range specifically matched to your application demands. From 100 tons (352 kW) to

2,000 tons (7034 kW), the Carrier hermetic centrifugals are

capable of performance at levels of .85 KW/Ton (3.0 KW/ kW) to .65 KW/Ton (2.3 KW/kW) and lower, depending on

design conditions. With features such as mix-match capa

bility, high performance heat exchangers, refrigerant options, multi-pass water boxes as well as tbe 19 Series her metic compressor designs, a Carrier centrifugal can be opti mized to meet any job requirement. The “Low Energy Con sumption Curve” illustrates performance levels possible

within the tonnage capabilities of the 19 Series hermetic line.

You get the most efficient, most reliable, energy-conscious and completely packaged machine for your particular appli cation. The hi-lift capabilities (up to 100 F) make the 19 line ideally suited for brine chilling, ice rink applications and process cooling. In areas with cooling tower restric tions, you can even specify a hi-lift Carrier centrifugal for use with closed circuit water condensing systems. The versatile Carrier centrifugals are also designed for low-lift requirements of today’s energy-conscious market.

Not only can Carrier Sales Engineers optimize your refrigeration requirements but they can optimize your total system as well. Thru various specialized computer pro grams, for example, a Carrier Sales Engineer can vary your leaving chilled water temperature a degree or increase your chilled water temperature differential from 10 to 14 F and show how the total system is affected with respect to operating costs. In this complex market of low energy con sumption as well as low first cost, Carrier can offer you productive ways to reduce your costs.

Energy-saving, precision design: extends compressor

motor life, saves on operating costs, increases electrical efficiency

• Hermetic design

• Gear-drive compressors

• In-line impeller design

• Refrigerant-cooled motors

• Solid state capacity control

• Thermal purge

• 55 F (13 C) condenser water

• Flash and thermal economizer

• Multi-pass water boxes

• Compressor-motor-heat exchanger mix-match

Engineering excellence provides lower first costs and years of trouble-free service

• Single-unit construction

• Factory-wired oil pump starter

• Permanent shipping bases

• Prepiped motor lubrication package

• Storage tank

• Factory start-up

• Integral chilled water sensor

• Elapsed-time indicator

Carrier’s computer approach to matching the machine and capacity to a specific application gives you access to literally thousands of condenser, compressor, cooler, refrigerant and pass combinations. Initial costs arc lower because you select only what you need — a smaller package. Operating costs are reduced because the mix matching of components allows lower energy consumption selections. In addition, a Carrier Sales Engineer has the ability to optimize selections, by varying conditions, thru the use of the Performance Programs. Should your job requirements demand performance other than what is shown in this catalog, contact your Carrier Sales Engineer

(refer to page 50 for the office nearest you). Thru com puterized selection he will be able to design your “custom built” hermetic centrifugal.

D

Computer selection saves time, cuts costs

Full line centrifugal service centers assure optimal care

of your unit

Convenience options offered for added energy efficiency, ‘tailor-made’ systems

s g

U.

(T

UI

a

KWAW KW/TON

f 2SÎ U

( 36;

■: 24;

22;

20) '

s 18'

( 16) [—

"Carrier Offers Low Energy-Consumptiors Selections"

Î^OCO) )20C0)

riOOO) (400C)

CAPACITY

19 Series Centrifugals —

The ideal refrigeration cycle

BEARING AND SEAL

VANE MOTOR

i I REFRIGERANT VAPOR

tliiSfel REFRIGERANT LIQUID

SERVICE VALVE

{5COC)

REFRIGERANT LIQUID/VAPOR

•SOCO)

^7000) kW

Carrier centrifugals use refrigerant (R-11, 114, 12 or 500) in a standard compression, single- or two-stage refrigeration cycle. System water in the cooler is chilled as its heat is transferred to refrigerant at low tem perature and pressure. As heat is re moved from the water, the refrig erant vaporizes and is drawn into the compressor at a rate controlled by the degree of the guide vane opening. As the compressor raises the vapor pressure, the saturation temperature of the refrigerant rises above that of

the condenser water. Refrigerant vapor is discharged directly into the condenser, where relatively cool condenser water removes heat from the vapor, causing it to condense again to liquid. The heated water leaves the system, returning to a cooling tower or other heat rejection device. The liquefied refrigerant then leaves the condenser, draining into

a chamber where a variable metering device regulates refrigerant flow and maintains a liquid seal to prevept vapor from passing into the cooler. As the refrigerant liquid goes thru this metering device, part of it vapor izes because of reduced pressure, cooling the remaining liquid to the

temperature at which the cycle began.

Energy-saving, precision design: extends compressor motor life, saves on operating costs, increases electrical efficiency

Hermetic design

Hermetic compressor design keeps motor free of airborne dirf and mois ture. It also isolates motor to keep heat and sound from equipment room. Eliminates shaft seal with its potential refrigerant leakage.

■ Gear driven compressors

Gear driven compressors allow more flexibility in selection than direct drive because gear ratios can be fitted to

19CB

particular application. Gear driven compressors also allow optimum im peller speed, higher head applications and increased operating efficiency.

Multi-pass water boxes

The complete 19 Series line offers 1,2,3

and 4 pass water boxes on both the

coolers and condensers. The result is

better heat transfer when needed —

reducing operafing costs. In addition,

all pass arrangements are available at

no extra cost.

Refrigerant-cooled motor

All 19 Series compressors have

refrigerant-cooled motors that operate at low, even temperatures throughout the motor windings to insure long motor life at high electrical efficiency.

19DH

Solid state capacity control

The capacity control module offers solid state compactness and reliability, with smooth and precise capacity mod ulation from 100% to 10% of full load, without hot gas bypass. It is more efficient in maintaining leaving water temperatures than any other type of control. The convenient, centrally located control center provides fully automatic machine operation, com plete with a full complement of safety interlocks. Check operating status at a glance, easily monitor all system oper ating points. The highly sensitive, factory-installed thermistor probe, solid state amplifier, and guide vane actuator are precisely matched and fully re sponsive to changes in leaving chilled water temperature. They help to main tain your selected design temperature throughout all operating load condi tions. The result is efficient, trouble-free operation with longer life expectancy.

All control connections can be made quickly to a single terminal strip; and once the solid state control has been

19EB

19FA

calibrated, control settings may be changed without additional field calibration.

55 F (13 C) condenser water

The Carrier metered refrigerant design allows the 19 Series chillers to operate efficiently with condenser water tem perature as low as 55 F (13 C) without

condenser water bypass or mixing

tanks. The 55 F (13 C) condenser water

means reduced head pressures which in turn means lower horsepower require ments The end result is lower energy

costs and lower annual operating costs. In addition, the absence of a condenser water bypass and mixing tanks add up to lower first costs and lower installation costs.

m

LZZZ

Compressor-motor-

heat exchanger mix-match

Each model within the 19 Series line

has the capability of mix-matching various heat exchanger sizes with an array of compressor-motor combina

tions. As illustrated, mix-matching

allows you to mount a small capacity

compressor on a large heat exchanger.

This design concept optimizes specified conditions, improving full and part load performance.

19DH

In-line impeller design

In-line impeller design, with diaphragm between stages, allows for more flexi bility in compressor component selec tion, which results in first cost savings on other machine components. Also provides higher head capabilities, pre vents uneven loading and allows for routine, easy maintenance.

— Motor End Bearing — Gear Journal Bearing — Driving Gear Bearing To Housing — Thrust Clearance on Gear

Bearing (each side)

— Pinion Gear Journal Bearing

— Pinion Gear Bearing To Housing

— Thrust Bearing

LEGEND

8

9 10 11

12

13

— High-Speed Journal Bearing — Front of Impeller to Volute Wall — Impeller Eye to ID of Inlet Ring — Labyrinth Behind Impeller to

Spacer Ring

— Labyrinth Behind Transmission

and Motor Shell

— End-Bell Bearing Labyrinth

Flash and thermal economizer

Two-stage models thru 1,600 ton (5627 kW) capacity feature a thermal economizer. The thermal economizer shown brings warm condensed refriger ant into contact with the inlet (coldest) water tubes where water as low as 55 F

(13 C) may be flowing. This low tem perature water subcools the refrigerant so when it moves on in the cycle it has greater cooling potential, thus im proving cycle efficiency and reducing power/ton requirements. In addition, all two-stage models employ a flash econo mizer, not shown, to further improve cycle efficiency. The liquefied refrig

erant leaves the condenser thru a

metering device and flows into the flash

economizer where the normal flashing

of part of the refrigerant into vapor is

used to cool the remaining refrigerant.

The flash vapor is diverted directly to

Thermal purge

The thermal purge effectively removes air, water, and noncondensables from the refrigerant system, promoting greater operating efficiency and lower maintenance costs. It needs no water connections or air-cooled condenser. It performs normal system purging during periods of operation on R-11 and R-114 machines. In addition, on R-11 machines it doubles as a pump for leak testing or machine evacuation after servicing. It also provides recovery of refrigerant under normal purging conditions.

19FA THERMAL ECONOMIZER

the compressor’s second stage so that it does not have to be pumped thru the full compression cycle. The flash econo mizer generates savings and signifi cantly lowers operating costs.

14 *5

14 — Thermal Economizer Partition Plate 15 — Refrigerant Flow Baffle

16 — Refrigerant Liquid Drain Line 17 — Condenser Water Inlet

J6 17

LEGEND

19DH

Engineering excellence provides lower first costs and years of trouble-free service

Single unit construction

Carrier centrifugals are the most com pletely packaged units of their kind. Chiller is shipped as a single unit com plete with integral storage tanks where required. Ready for quick connection

to water and electrical sources at the job site. (Compressor is field installed on the 1,600-2,000 ton (5627-7034 kW)

models; the heat exchanger and

economizer are factory assembled.) In

addition. Carrier centrifugals arrive at

the job site with controls mounted and

pre-wired including the chilled water

thermistor. All control connections can

be made to a single terminal strip. Single

unit construction assures minimum in

stallation time, minimum installation

costs.

Factory-wired oil pump starter

Models available for U.L. listing feature

a factory-wired oil pump starter The

starter is factory wired to the machine

with overloads and contactors sized by

Carrier for U.L. compliance. The entire

assembly is factory mounted to save in

stallation time and field labor costs.

Permanent shipping bases

Rigging can be done faster and the need

for costly concrete bases and supports

is eliminated with 19 Series permanent shipping bases.

Prepiped motor lubrication package

The oil pump, motor, filter, cooler, pressure controls, and electrical ter minals are all prepiped and wired to save on-site labor costs and installation headaches.

Storage tank

The storage tank is an integral part of the machine design on all R-12 and R-500 units. No additional pipings, fittings or valves are needed. No in creased floor space is required which saves you first cost dollars. Servicing or testing may be easily accomplished without time-consuming transfer to separate containers which saves you service dollars. Models using R-114 offer the storage tank as an option at minimal cost. They are constructed to ASME code requirements and include all necessary connections for refrig erant transfer system.

Factory start-up

Carrier start-up service for your ma chine is included in the purchase price. This assures you of trouble-free, work ing installation right from the start. It

includes refrigerant transfer, leak test

ing and precision calibrating of the solid state control settings and safety control settings.

Integral chilled-water sensor

A chilled-water thermistor probe is fur nished, installed in the leaving chilled water nozzle as part of the machine’s standard control system. A signal from the sensitive solid-state device to the central control module automatically initiates immediate adjustments to com pressor capacity. This eliminates the need for accessory pneumatic equip ment, separate sensing devices, saves you initial equipment cost, and makes installation easier, more economical. As part of the machine’s standard control system, it does not have to be specified in another portion of the job, and thus further reduces first and installation costs.

Elapsed-time indicator

Every Carrier centrifugal features an

elapsed-time indicator to provide an

immediate and constant record of

machine operating hours. No over- or

underestimating when scheduling

maintenance. Mounted outside of the

control box for easy visibility.

Full line centrifugal service centers assure optimal care of your unit.

When you specify Carrier, you get a complete service organization unequaled in the industry. Carrier Service

j Operations is a national organization in over 150 key loca

tions throughout the United States and Canada. This is the one service organization that has grown up with the air conditioning industry. Today, more and more owners rely on Carrier Service Operations for an in-depth, practical

approach to energy conservation. This extraordinary full time commitment to quality maintenance and service proves Carrier’s interest in continued customer satis faction. Your centrifugal, in fact your entire HVAC system, will be in the care of people who are fully versed on the design, manufacture, installation, start-up and maintenance of your equipment.

Computer selection means “custom built” machinery — saves design time and lowers cost.

Supplementing the selections in this publication, Carrier has, for your convenience, developed computer selection and performance programs for 19 Series hermetic units that incorporate 800,000 combinations of condenser, compressor, and cooler components. Computerization of this data allows you to take full advantage of Carrier’s tremendous job-matching flexibility.

Only Carrier features the truly optimized selection and performance programs which are far superior to the limited combination, manual/ computer compromise selection systems. With Carrier you have the ultimate flexibility — you can specify an entering OR a leaving condenser water

temperature; a temperature differential or a water flow rate. This unique service takes a minimal amount of time and it’s completely free when you select Carrier.

Remember these advantages you’ll get from using

Carrier’s computer selection service when choosing your

19 Series hermetic centrifugal:

• Fast, accurate equipment selection.

• Comprehensive data, comparing best first cost and best operating cost selection.

• Accurate matching of components at full and part load.

• Reliable forecasting of owning and operating costs.

• A clear picture of how the chiller functions with the other components of your system.

• The capability to vary conditions, optimize selections and define part load conditions with the performance programs.

• Comparative flow rates applied to various condenser

water temperatures to assist you in selecting the cooling tower.

• Savings all year long.

Convenience options offered for added energy-efficient, ‘tailor-made’ systems

Pneumatic capacity control

Complete pneumatic control systems are available, if desired, for the centri fugals in the 100 to 2000 ton (3527034 kW) sizes.

Safety indicator panel

This accessory provides the operator with an instant trouble-shooting capa bility. Seven panel lights monitor high motor or bearing temperature, low

refrigerant temperature, high con denser pressure, starter (overloads and protective devices), low water flow

(chilled or condenser), low oil pressure, low chilled water temperature. When safety is tripped, the light goes on. Panel does not affect the integrity of the central control system, is easily con nected to the machine without disturb ing factory wiring. In addition, a remote sound or light alarm can be easily field installed to alert you, should a safety light be tripped on the indicator panel. Only a simple two-wire hook-up is

required.

Selective insulation

The 19 Series machines are adequately insulated at the factory to meet most application demands. However, addi tional insulation packages are available for specific machine applications.

Isolation assembly

A combination of soleplates, jacking

screws, leveling pads and neoprene

pads are available in isolation packages. Specify this option for installations

requiring special mounting. Isolation pads are shipped at no charge.

Remote control set point

Select or alter machine chilled water temperature from a remote location by specifying this optional solid state control.

Pumpout unit

Factory mounted, complete with starter, controls and all necessary inter connecting refrigerant piping. Permits easy transfer of refrigerant between machine and storage tank. Speeds servicing and minimizes downtime. On multiple machine applications, a single pumpout unit saves first costs. Not required for R-ll units.

Lead-lag control

Desirable when two or more machines are installed in series or parallel. Cen tralized control features the following capabilities;

• parallel operation

• series operation with split or common point control

• two or more chiller operations

• uneven sized chillers working together

• independent control of chillers both manually and automatically

• automatic lead-lag operation

• reassignment of lead-lag hierarchy

• automatic standby Panel lights indicate system operating

mode.

Hot gas bypass

When a machine is expected to run at light load and elevated condensing tem peratures or at minimum load for ex tended periods of time, a hot gas bypass is recommended. The hot gas bypass is factory mounted and wired, manual or automatic. It virtually eliminates com pressor surging at extreme part-load conditions and smooths out the ma chine’s full operating cycle, whatever the load fluctuation.

Additional energy-saving options

Chilled water self-reset control

This device permits the leaving chilled water tempera ture to rise as the load on the machine decreases. The higher the leaving chilled water temperatures, the less work the compressor is forced to do.

The power monitor control

An electronic, energy-saving device which continuously monitors building electric demand and sheds preselected

loads in stages during peak power usage periods. The power monitor control reduces power consumption and minimizes power demand charges.

Chilled water reset-dual input

A device that causes the leaving chilled water tempera ture control set point to change in proportion to a change in a remote temperature such as return chilled water or outdoor air temperature.

Adjustable stepped-rcset control

A device that permits leaving chilled water tempera ture to rise in predetermined adjustable steps. Operator is in control of demand limit so amount of reset is not dependent on machine load but on the amount of change of resistance in the probe circuit.

Stepped power demand limiter

This option makes it possible to limit power demand in four ways:

1. At start-up each chiller can be held to a preselected maximum current draw for any time period of up to one hour.

2. During normal operation, chiller load can be auto matically reduced in up to 3 stages in response to increased total building power consumption.

Chiller demand can semi-automatically be lowered in

3. a single stage in response to increased total building power consumption.

4.

Chiller demand can also be lowered manually.

Stepped power demand limiter minimizes the likeli hood of getting demand charges. Also has timer which increases flexibility of operator. Operator can change demand limit without being at controls and can also adjust demand limit manually.

#

10

PASS-RISE TEMPERATURE ADJUSTMENT (F/C*)

*To convert the temperature adjustment factor to °C, divide by 1 8

Metric tech

Area

cm2 100

cm3 m3 1 0 m2

Length

mm 1.0 mm 0 03937 mm 0 003281 m 1 0

m

Mass

kg kg

Power

kcal/h 1 163 kcal/h 3 968 Btu/h 0 2931 HP metric HP metric

Mcal/h 1 163 Mcal/h

X =

0 1550

10 76

3 281 ft

2 205

0 9863

0 3307

English unit X =

ip2 «2

in

ft

lb

HP(550

Ton refr 3 517

645 2 0 09290

25 4 304 8

0 3048

1 0 0 4536

0 7355 0 7457

CONVERSION TABLE

SI unit

mm2 mm2 m2 m2

mm mm mm m m

kg kg

w w

kW kW

Metric

tech Pressure

mm w g 4°C mm w g, 4°C mm Hg 0°C mm Hg 0°C kg/cm^ kg/cm^

Temperature”

Interval

°C

y

Velocity

m/s m/s

__

m/s _

Volume/Time

m®/h

m^/h m^/h

L/h

__

L/h

Metric

tech Temperature

“C

°C

0 03937 0 03937

^14 22

1 8

3.281

196.9

0 5886 4 403

4 403x10-3

Conversion

factor =

(»Cx18)+32 °F

English unit

inHjO 39 2 F in Hg 32“ F psi

°F

ft/s ft/min

fH/min

U S gal/min U S gal/min

nEhglish

Un»

0 009806 0 2491 0 1333

3.386

98.07 6 895

1 0

0^5556

1 0

0 3048

0.00508

0 2778 0 4719 0 06309 2 778x10-“' 0 06309 _

Conversion factor =

“C+273 15

(°F-32)-r1.8

SI unit

kPa kPa kPa kPa kPa kPa

K °C

m/s m/s

m/s

Us L7s tVs

Us Us

____

SI unit

K

°c

_

#

12

Using the 19DH,EB,CB model numbers

When ordering 19DH, 19EB or 19CB chillers, use the ordering code described below. Chiller nozzle arrange ment and compressor voltage must be listed separately.

Using the 19FA model number

When ordering 19FA chillers, use the ordering system described below.

(19C8) Condenser-------------------------------------------------Heat Exchanger (HE) (UN){19CB) Cooler------------------

19EB8165DK

Model (19DH, 13EB, 19CS)-

Heat Exchanger or Unisheil (UN) •

Compressor (CS)

Motor---------------------------------------

List chiller model in first 4 code number positions Obtain Unishell or heat exchanger size from step V of the Selec

tion Procedure and enter in positions 5 & 6

Obtain compressor size from step V of the Selection Procedure and enter in positions 7 & 8

Obtain motor size from step VII of the Selection Procedure and enter in positions 9 & 10

-----------------------

13FA563-B-500-2425-L-EC

Cooler -

Heat Exchangers (HE)

Condenser-

Base Size (S, small or L, large)

Motor Size (MS)-------------------------------------------------------------

1 List chiller model in first 4 code number positions

2 Obtain compressor size from step V of the Selection Procedure

and enter in positions 5, 6 and 7

3 Also from step V of the Selection Procedure, obtain gear size

and refrigerant used Enter gear size in position 8, next enter refrigerant in 9-11 (May only need to use 9 & 10 )

4 Obtain heat exchanger size from step V of the Selection Pro

cedure and enter the cooler size in positions 12 & 13 and the

condenser size in positions 14 & 1 5 5 Base size is indicated in position 16 6 Obtain motor size from step VII of the Selection Procedure and

enter in positions 17 & 18

Part-load energy requirements

At part load, chiller energy requirements are aifected by many variables, such as degree of load, chilled water flow, condenser water flow, entering condenser water tempera ture, leaving chilled water temperature, and the percentage of compressor loading at design conditions.

Because of these many variables, a typical part-load curve (% Standard Rating Tons versus % Standard Rating Kw Input) may have appreciable inaccuracies when applied to a specific chiller and set of conditions. Carrier, therefore, does not recommend the use of such curves in making operating cost studies.

Instead, thru computer analysis. Carrier will provide

you with accurate and detailed information on the energy

requirements for your selected chiller at the expected

jobsite conditions.

Energy savings can be significant if the chiller can be

operated with a relatively low entering condenser water

temperature. And, since conditions of design load and

design wet-bulb temperature can occur rather infrequently,

the opportunity for such savings exists during most of the

operating season. Each chiller is capable of operating

efficiently with entering condenser water temperatures down to 55 F (13 C). This capability assures you of both energy conservation and excellent part-load performance,

because “custom-made chillers” give the best part-load

performance.

13

19DH Selection data

19DH* 100-450 TONS (352-1583 kW)

100 Ton Selections (352 kW)

ADJ. LVG.

COND. WTR.

TEMP.

(F) ! (C)

1 ;

85 ! 29.4

90 ; 32.2

92.5 ; 33.6

95 ; 35.0

•

97.5 ! 36.4

:

100 ! 37,8

UN 42 42 42 42 CS 13 13 RE MS AA KW 78 76

UN 42 42 CS RE MS KW 86

UN CS 15 RE 11 MS AA KW 92 86 83 80

UN CS RE MS AB

KW 97 92

UN 42 42 CS

RE MS AC AB KW 107 97

UN 42 42

CS

RE MS KW

125 Ton Selections (440 kW)

ADJ. LVG.

CONO. WTR.

TEMP.

(C) (4.4)

(F)

85

29.4

90

32.2

92.5

97.5 36.4 RE

95

100

33.6

35.0

37.8

UN 42 CS 27 20 13 19 12 12 RE 11 11 11 11 11 1 1 MS KW

UN 42 42 42 42 42 42 CS RE 11 11 MS AC AC KW 114 107

UN 42 CS 29 22 RE 11 11 MS AD AC

KW 117 114 106 102 102

UN CS 30 23 RE 11 11 MS AD AD AC AC

KW 125 121

UN CS

MS AE AD KW 136 125

UN CS 31 24 23 23 RE 11 11 MS AE AE AD AD AD AC KW 139

ADJUSTED LVG CHILLED WATER

TEMPERATURE — F (C)

42 ! 44 i

40

(4.4)

(5.6) ! (6.7)

11 11

AA AA AA

14 14 13 13

11 11 11 11 11

AA AA AA AA

AC

111

40

AB AB AB AA AA AA

101

r 42

83

42 42 42 42 42

14 14

11 11 11 11

AA AA

42 42 42 42 42 16 15 15 14 14

11 11 11 11 11

AA AA AA AA

17 16 15 15 15

11

17 17

11 11 11 11 11

AC

107

ADJUSTED LVG. CHILLED WATER

TEMPERATURE — F (C)

(6.7)

(5.6)

42

97 96

29 21 20 13

42 1

44

42

24 30 22 22

11

44 44

135

45

(7.2)

13 12 11 11

74 42

78 77 76

89 42 42

11 11 11

AA AA

92 42 42

16

AB AB AB

97 96

44 T 45

(7.2)

42

11

AB AB

100

42

21

1 1

AC AB

42 21 11 11

110

42 42 11 11

AD

117

42

11

125 122 116 111

46

(7.8)

* *

68 42

42

13

AA

13 13

AA AA

79

84

85

42

AA

91 89

42

16 16

95

46 48

(7.8)

42 42

88 87

13

11 11 11

AB AB

100 98 95

42 42 42 20

13

11 11 11

AB

42 42

21 14 13

11

AC

108 108 101

AC AC AC

115 114 107

42 15

11

42 42 42

22

11 11 11

48

(8.9)

*

(8.9)

42

84

13

AB

98 42

11

AB

42 14

11

14

150 Ton Selections (528 kW)

ADJ. LVG.

COND. WTR.

TEMP.

85

90

95

100

(C)

29.4

32.2

33.6

35.0

37.8

UN 46 CS 35 27 27 27 26 19 RE 11 MS KW

UN 46 CS 37 RE 11 11 11 11 11 MS AE AD KW 141

UN 50 46 46 46 46 ^ 46 CS 37 36 RE 11 11 11 11 11 11 MS AE AE KW 142 134 127 121 119

UN CS 37 37 35 28 28 20 RE 11 11 11 11 11 11 MS AE AE AE AE AD AD KW 141 144

UN 50 53 46 46 46 46 CS 47 36 36 29

MS CB AE AE AE AE AD KW 156

UN 50 50 51 50 46

CS 47 47 36 29 29 RE 11 11 11 11 11 MS CC CB AE AE AE

KW

(F)

92.5

97.5 36.4 RE 11 11 11 11

ADJUSTED LVG. CHILLED WATER

TEMPERATURE — F (C)

40 42 44

(4.4)

(5.6)

46 46

11 11

AD

AD AC AC AC AB

124

116 112 113 105 102

46 46 35

127 119

53 46 46

136 139

156

160

175 Ton Selections (615 kW)

ADJ. LVG.

COND. WTR.

(F)

85 29.4

90 32.2

92.5 33.6

95

97.5

100

LEGEND

CS — Compressor

GR — Gear-Refrigerant HE — Heat Exchanger

KW — Power Input

MS — Motor Size RE — Refrigerant UN — Unishell

14

TEMP.

(C)

35.0

36.4

37.8

UN CS 43 43 34

RE MS

KW UN

CS 51 44 35 35 35 34

RE 11 MS

KW 147 144 141 142

UN

CS 52 44

RE

MS CC CB

KW

UN

CS

RE

MS CC CC CB CB AE AE

KW

UN

CS 54

RE 11 11

MS CD

KW

UN CS RE MS CD CD

KW

ADJUSTED LVG CHILLED WATER

TEMPERATURE — F (C)

40 1 42

(4.4)

(5.6)

50 50 51 50 50 50

11 11 11 11 11 11

AE

AE AE AE AE AD

133

138

50 50

11 11 11 11 11

CB

CB AE

50 50

11 11

156

150

50 50 50 53 52 44

11 11 11

166 156

50 50 50 50 50

46 45 45 44 34

CC CC

183 169 157 155

50 50 54

47 46 45

11 11 11 11

189 186

(6.7)

(6.7) (7.2)

45

(7.2)

44 44

11

46

27 27 20

AD

AD AD

117 115

27 27

28

AD

AD AD AD

46

130 128 127 119

136

138

139

44

45

34

130

143

148

168

51 50

53

AE

50 44

11

AE AE AE

CB

143

11

146 144

11

CB

50

CC CC

160

53 51 35

11

50 44

50

r 48

46

(7,8) (8.9)

11 11

46 46

46

28

11 11

130 122

138

46 48

(8.9)

(7.8)

34 26

128 116

AE AE

141 131

35 34

11

142

53 51 35 34

11 11

CB AE

148 140

50 I 50

45 45 11 11

CC CB

157 153

44

19

11

AC

105

20

115

46

27

46

28 11 AE

129

11

136

138

#

50

53

200 Ton Selections (703 kW)

ADJ. LVG

COND. WTR.

TEMP.

(C> (4.4)

(F)

85

29.4

90

32.2

92.5 33.6

95

35.0

97.5 36.4

100

37.8

UN 51 CS RE 11 11 MS KW

UN CS RE MS CC KW 166

UN CS 59 RE MS CD KW 176

UN CS 60 52 RE MS CD KW

UN CS 61 RE MS KW

UN CS RE 11 11 MS KW

A

DJUSTED LVG.

TEMPERAT

" 42 “I 44

¡5.6) ; (6.7)

51 51

57

50

CB

CB AE

156 151

53 51 51 51 58 51

11 11

CC 164 155

53 51

58 51 50

11 11

CC CC 170 164 156

53

53 51"’ 51

11

11 11 11

CD CC

188 175 171

53 53

59 51 51

11 11 11 CE CD 207 181 171

53 53

61

60

CE CD 215 193

CHILLED WATER

JRE — F (C)

49 49 42

11

140 136

50 11

CB CB

51 51

11 11

51 51

53 53

CC

53 53 52

11 CD 181 177 171

45

(7.2)

51 11 11

AE

50

11

152

CC

CC 167 164

11 CC CC CC 168 169

52

11 11 CD CC

46

(7.8)

(8.9)

51

AE 136

51

43 42

11 CB AE 152

141

51 51

43

11 11

CC CB 156 151

51

11

CC CC

156

51 51

51 44

11 11

166

53 51

51 51

CC 169

275 Ton Selections (%7 kW)

ADJ. LVG.

COND. WTR.

48

51 42 CS 11

AE MS CE

51 UN 11 90

43

51

43

11 95

1 1 100

TEMP.

(F) (C)

85

29.4

32.2

92.5

33.6

35.0

97.5 36.4

37.8

40

(4.4)

UN 61 RE 11 KW

203 197

61 61 65

CS 81 RE

11

CL

MS KW

219

UN 61 CS 82 RE 11 MS CL CL KW

233 222

UN 61 CS RE

11 11

MS CM CL

KW

248 236 221

UN 61 CS RE 11 MS CN KW 276

UN

61 61

CS 84 RE

11 11 11

MS CN CN KW 281

ADJUSTED LVG. CHILLED WA1

TEMPERATURE — F (C)

42

44

(5.6)

(6.7)45(7.2)

61

73

CD CD

CE 210

63 61

73 64 64

11 11

73

11

61

74

11

CD

195

196 178 171

65

11

CE

CL

210

223 202

65

66

11 11

CL CL

11

61

66 64

11 11 11

63 61 61 66 65 64

224 224

83

^ 61 61

75 74

CL CE

11 11

65 61 61 65 67 64

219 241

77 76

11 11

CM CL

251 236

77 76

276 250

6Ì 61

CM CM

61

75 75

11 11 11

CL CL

232 234

61 61

11

246

76

■ ER

48

46

(7.8)

(8.9)

61 61

63

11 11

CD CD

61 61

CE CD

184

11 11

CE

217 201

11 11

CL

CE

208

63 61 66

CL 222

65 61 66 66

11 11

CL

236 236

56

63

65

250 Ton Selections (879 kW)

300 Ton Selections (1055 kW)

ADJ. LVG.

CONO WTR

TEMP.

(F) (C)

85 29.4

90 32.2

92 5 33.6

95 35.0

97 5 36.4

100 37.8

UN CS RE MS

KW.

un'

CS RE MS KW

UN CS RE MS KW

UIM^

CS RE MS

K^

UN CS RE MS KW

UN

CS RE MS KW

ADJUSTED LVG. CHILLED WATER

40

(4.4Ì

61

80

11

CL

223

61 82

11

CM

252

61 83

11

CN

267

61

90

11

CN 274

éf 84

11

CP 306

63 84

11

CP 307

TEMPERATURE — F JC)

44 "T

42

¡5.6)

61 73

11

CL

219

61 81

11

CL

236

’ 61 ’

81

11

CM

243

61 82

11

CM

259^

61 83

11

CN

274

61 84

11

CP

303

211

(6.7) :

61

73

11

CE

61

73

11

CL

225

6l’

74

11

CL

240

éi"

75

11

CM

255

61 82

11

CM

258

61 83

11

CN

273

45

¡7.2)

61 72

11

CD

197

61 73

11

CL

2M

"'61

73

11

CL

228

61 ’ 74

11

CM

242

61 75

11

CM

259

61 76

11

CN

274

46

(7.8)

61 72

11

CD

.1?3

61 73

11

CE

.217„

6Ì"

73

11

CL

224

6l"

74

11

CL

238

61

74

11

CM

246

61 75

11

CM 262

48

63 63

11

CD

189

65 64

11

CE

212

65 64

11

CE

218

73

11

CL

223

61 74

11

CL

238

61 75

11

CM 252

*For additional tonnage and performance selections contact your nearest Carrier Sales Office (see page 50)

15

19DH Selection data (cont)

350 Ton Selections (1231 kW) 400 Ton Selections (1407 kW)

ADJ. LVG.

CONO. WTR.

TEMP.

(fT

92.5

97 5 36.4

100

(C) (4.4)

85

29.4

90

32.2

33.6

95

35.0

37.8

UIM

CS 95

RE 11 MS KW 271

UN 63 CS RE MS CP KW

UN 65 CS 97 RE MS CP

KW 311 UN 65

CS

RE 11 MS CQ KW 344

UN 65

CS 98

RE 11 MS CQ KW 352

UN CS 98 RE

MS KW

LEGEND

CS — Compressor

GR - Gear-Refrigerant

HE — Heat Exchanger

ADJUSTED LVG. CHILLED WATER

_ JTEMPERATURE — F (C)

42 44

40

(5.6) (6.7)

63

87

CN CM CM CL CL

11 11

255 247

gg 95

97

11

CN CM

279 263 259

309

CQ 358

63 96

11 11

11

CP CN 297

63 97 89

98

11 11 CP 317

65 63

97 90

11 11 CP CP 319 316

65

72

91

11 11 11 11 11 11

CQ CP

352 318 321 305

KW — Power Input MS — Motor Size

RE — Refrigerant UN — Unishell

45 46

(7.2) (7.8)

63 63 63

80 86

229 225

63 63 63 87

11 11 11 11 90

CM

63 63 88 87 80 80

CN

278 265

63 63 63 63

CP CN CN CM 296 282 276 261

CP 300

65 63 63 63

90 90

CP

79 72 CS

11

80

CM CM 254

63

11

CM 264

88 81 80

11

63

82

89

11

CN CN 294

89

CP CN

ADJ. LVG.

COND. WTR.

48

(8.9)

63 UN

11 85 23.4 RE CL 220

63 73 CS

249 KW 335 339 309 294

63

11

CM

252

11

63 81 11

276 KW

82 CS 97 97 97 89

295 KW

TEMP.

95

(C>

32.2

35.0

36.4 RE

37.8

(F)

92.5 33.6

97.5

100

MS KW

UN RE 11 11

MS UN

CS RE MS KW UN CS 97 97 96 95 87 RE MS CQ CQ KW 348 350 333 318 297

UN 77 CS

MS

UN

RE MS CQ CQ CQ

ADJUSTED LVG. CHILLED WATER

TEMPERATURE — F (C)

40 142 44 45

(4.4)

(5.6) (6.7)

76 71 95 95 94 87 86

11 CP CP CN CN CM CM 298

CQ CQ CP CN CN CN

CQ CQ CQ CP CP CN 338 344

11

301

77 72 97 97

78 73 71 97

97 96 95

1 1

11 11 11 11 11

76

*

11 11 11 11

97

*

11 11 11 11 11

CQ

353

*

(7.2)

71

11

279 275 256

326 313 299 286

CQ

71

94

95

11

71

CQ

71

73

97 96

97

CQ 356

352

76 73 72

11 11 11 11

357

358

46 48

(7.8)

(8.9)

71 11 11

71

87 80

11 11

281

288

71

94

71

CP

71

CQ 338 317

356

71

79

247

71

87

71 11

CP

71

88

CP

71

CQ 334

UNISHELL COOLER

FLOW RATE L/s

.2

2 4

FLOW RATE. GPM (lOO's)

100;

50

- 100

- 50

iOO

UNISHELL CONDENSER

- 100

50

.2

- 100

-* 0

100

50

16

50

-* 0

UNISHELL COOLER

FLOW RATE L/s

2 4

UNISHELL CONDENSER

4 8

FLOW RATE.GPM (lOO's)

- \00d

50 ^

100

50

-* 0

40

30

20

10

- 100

50

0

-1--^--.

---

r

- 100

50

0

-]—r

/3f

%ss

2 PA 3S

53 CONDENSER

IP ^SS

100

I

100

50

100

50

100

50

- 50

8 1 0

- 100

50

100

50

12

20

17

19DH Selection data (cont)

0 10

UNISHELL COOLER

FLOW RATE L/s

5 1.0

FLOW RATE, GPM (lOO's)

10

UNISHELL CONDENSER

Û.

I00c5

CL

o

cn

Q

50 y

ctr

3

(/)

cn

iU

20

I 5

- 100

50

20

i 5 I 0

10

100

20

100

20

I 5

100

10 20

20

1 0

20 30

1 5

50

- 100

50

100

10

20

50

20

1 5

100

50

20

I 5

-I 0

30

15

I 0

100

50

20

30

18

20 30

t

UNISHELL COOLER

FLOW RATE L/s

10 15

UNISHELL CONDENSER

0 5 10 15

20

100

50

I

1

19DH

UNISHELL

SIZE

42 44 46 8,600 50 10,000

51

53 10,400 47’lT 55 57

61

63 14,200 6441 65

71 15,800 7167

72 73 76 16,800

77

78

RIGGING

WEIGHT

(lb)

8,400

8,500

10,200 10,600

10,800 13,900 6305

14,400 6532 16,000 7257 18,175 8244

16,300 17,200

17,500

10 20 30

FLOW RATE.GPM (lOO's)

10 15 2 0

10

30 40

Physical data

OPER

WEIGHT

(kg)

(lb) : (kg)

9,260 14200

3810

9,405 14265

3856

9,570:4341

3901

11,105 :5037

4536

11,335 15141

4627

11,600: 5262 4808 11,860; 5380 4899

12,115 15495 625 : 283

15,660:7103 775:352

16,040:7276

16,370,7425

17,91518126 975■442 7394

18,560:8419 7620 19,30018754

7802

19,870:9013 1150'522 7938

20,330:9222 1200 544

CHARGE

(lb) :(kg) (sq ft)

500:227 525:238 550:249 575:261 130 5751261

600 1272 130 625:283 130

810:367 850:386 213

985'447

1010 458 1100:499 218

OPER

R-11

0 Q-

- 100

50

AREA

TO

INSULATE

(m^)

130

12 130 12 130

12

12 130

12

12 130

12

213

20

213

20

218

20

218

20

218

20 20

218

20

218

20

10 15 20 25

10

Elcctriccd data

MAX

MTR

AA

_

AB LRA Star

AC

AD

AE

CA

CB

CC 172 LRA Star

CD

CE

CL

CM

CN

CP 323 LRA Star

CQ 360 LRA Star 1789

FLA — Full Load Amps KW — Compressor Power Input (Kilowatts) LRA — Locked Rotor Amps WITR — Motor

NOTE Overload Trip Amps = FLA x 1 08

19

VOLTS

KW

FLA per Kw LRA Star

93

LRA Delta FLA per Kw

105

LRA Delta FLA per Kw

115 LRA Star

LRA Delta FLA per Kw

129 LRA Star

LRA Delta FLA per Kw

144 LRA Star

LRA Delta FLA per Kw

144

LRA Star LRA Delta

FLA per Kw 3^04

1 56

LRA Star LRA Delta

FLA per Kw LRA Delta

FLA per Kw

200

LRA Star LRA Delta

FLA per Kw

219

LRA Star LRA Delta

FLA per Kw

243 LRA Star

LRA Delta FLA per Kw

267 LRA Star

LRA Delta FLA per Kw

295 LRA Star

LRA Delta 4652 FLA per Kw 3.04

LRA Delta FLA per Kw 3.04

LRA Delta

20

30

20 30 40

208 230 3 08

2 78

439

370

1378 [115^ 577

2 78 1 39

3 08

402 201

480

1254

1500

3 08' 2.78

528 442 221

1648

1380 690 552 — —

3 08

2 78 1 39 1 12

576

482

1800

1506 753 602

3 08

2.78 1 39 1.12

653 546

2040 1706

_ _

— —

2 75'

776 650

2425 2032

3 04

2.75 1.38

862 722

2256

2695

3 04

2 75

1008

844

3150

2636 1318

З' 04

2 75 1 38

1082

908

3382

2836 1418

3 04 2 75 1.38 1 10

1219

1020 510 408 3186

3810

3 04 2 75

1336 1124 562

3514

4180

3.04 2 75 1 38 1.10

1490 1246 623 497

3888

2 75 1 38 1.10 263

1603

1340

5010 4190

2 75 1.38 1 10 264'^ 153

1502 751 599

5595

4690 2345

" "Г"""

460 j575

1 39

1 12

185

148

462

1 12

161

627

502

1 39 1 12

177

241 192

273 218 853 682

_

1 38" 1 10

325

260

1016 813

1 10 262

361

289

1128

903 226

1.38 1 10 265 422

337

1053 265 153

1 10

454

363

1132

1593 1273 320 185

1.10 266

1.38

450

1757 1405 353 204

1944 1554

670 536

2095 1674 421

1874 474

2400

4160

— —

--

__

— — — — — _ — —

— _ _ — _ _ _ _

271

187 263 154'

— —

204

_

— —

264

— 284 164 263

— —

.155

— — 264

— — 392 226

.152

— —

100

— _ —

_

_ —

_ _

160 108

118 151

_ 130 150

151

_ 152

153

243

273

19EB Selection data

19EB*

425-1100 TONS

(1495-3870 kW)

450 Ton Selections (1583 kW)

ADJ. LVG

COND WT

TEMP.

Ft.

(F) ; (c>

>"UN 71 71 71 71 71 71

29.4 RE 12 12 12 12 12

85

90 32.2

92.5

33.6 RE

95

35.0

97 5 36.4 RE 12 12 12 12

100

37.8

cs 23

MS KW 336

UN 71 71 7Ì 71 71 CS RE 12 MS DC KW 363 348

UN 71 71 CS

MS KW 372 360

UN CS 25 RE 12 MS KW

UN 71 71

CS 35

MS

KW UN 71 71

CS

RE MS KW

ADJUSTE

4Q I 42

(4.4) i {5.6)

DB

23 23 21

33 23 12

DC DB DB DB

71

DD 396

DD 412 394

27 35 12 12

DE DD

434

500 Ton Selections (1759 kW)

ADJ. LVG. T

CONO WTR. i

TEMP.

(F)

85 29.4

90

32.2

92.5

33.6

95

35.0

97.5

36.4 RE 12 12

100

37.8 RE 12 12

..

_____

(C)

UN

CS

RE 12 12 MS KW 356 342

UN CS 33 33

RE 12 12

MS

KW 387 381

UN 73 73 CS

RE 12

MS

KW

UN 73 73

CS

RE 12 12 12

MS

KW 425 403

UN 73 73 CS 35 35

MS DE DE

KW 440 429 406

UN 73 73

CS 37 35

MS DE DE

KW

ADJUSTED LVG CHILLED WATER

40

(4.4)

73

31

DB DB

73

DD DC DB DB

33 33

DD

404

35 33

DE DD

468

D LVG. CHILLED WATER

TEM

PERATURE — F (C)

44

^T 45 T 46 ¡'48'’

{6.7) i (7.2) = (7.8) i (8.9)

21 21 21 21

DB

DB DB DB DB

314

306 303 299 292

12

DB

DB 328

12

350

71

25 12

DC DB

384

359 ^71 71

25

DD

DC DC DB

371 366

DD 396 393

416

TEMPERATURE — F (C)

.

....................

42 44

(6.7)

Ì5.6)

73

31

DB DB DB 336 329

73

356 363

12

DD

DC DC DC

390 366

DD DD DD 395 388

DD

442

433

21

12 12 12 12

DB DB

320 317

71 71

71

23 21 21

23 12 12 12 12

347 327

71 71

23 23 23 21

12

DB DB 357

23 23

71 71 71

25

25 12 12 12

DD

(7.2)

73 73

21 21 21

12 12

73 73

21

31

12 12

73 73 72

31 23

12 12

377

73 73 72 33 23

12

73

73 33 33 33 12 12

DD 402

73 73 72 25 33 12 12

DE DD DD

416

41 6

21

DB

7Ì

12 12

354 329

71

23 23 12 12

363 357

23 23

DC

375 366

46

(7.8) ¡8.9)

72 72 12 12

329 322

72 72

21 21

1 2 12

DB

360 341

23

12

377

23 12 12

388 366

72

12 DD 403

33 23

12 12

DB

310

DB

320

DB

DC

48

DB

354

DC

DD 389

DD 402

11

12

71 21

71

21

31

72 23 12

12

72 12

72

550 Ton Selections (1934 kW)

ADJ. LVG.

COND WTR.

TEMP.

(F) (C) i (4.4) (5.6) (6.7)

29.4

85

90

32.2 RE 12 12

92.5

33.6

95

35.0 RE 12 12

97.5 36.4

100

37.8 RE 12 12

UN CS RE 12 12 MS KW

UN CS 43 33

MS KW 434 419

UN CS RE MS KW 459 432

UN CS 45 35

MS KW 475 458

UN 73 73 CS 47 45 RE 12 MS DG KW

UN 73 73 CS 47 37

MS KW 524 505

ADJUSTED LVG. CHILLED WATER

TEMPERATURE —

'42'"' ''44'“^

40

73 73

31

43

DD DD 409 393

73 73

DE DE

73 45 12

DE DE

73 73

DF DF

508

DH DG

DD DC DB 398

DD DD 409

73 43 12

DE DD DD

DE DE DE 435 425

12 DF 477

475

600 Ton Selections (2110 kW)

ADJUSTED LVG. CHILLED WATER

TEMPERATURE — F (C)

42

40

(4.4)

(5.6) (6.7)

76 76

DE DE

12

76 76 45 43

76 76 45 45

523 495

76

DH

47 47

DJ DH

DD DD

415

401 395 387

76

12

DE DE DE

451 445

76

DG

DG DF DF

DG DG DG

547_

20

ADJ LVG.

COND. WTR

TEMP.

(F)

85

90

92.5

95

97.5 36.4

100

LEGEND

cs

Compressor

GR

Gear-Refrigerant

HE

Heat Exchanger

KW

Power Input Motor Size

MS RE

Refrigerant

UN

Unishell

(C)

UN

29.4

32.2 RE

33.6 RE 12 12

35.0 RE 12 12

37.8

CS 43 41 RE 12 12 MS KW 436

UN 76 CS 37 43

MS DG DF KW 501 449

UN

CS

MS DG DF KW 494 472

UN CS

MS DG DG KW

UN

CS 47 45 RE 12 12 MS KW 544 513

UN 76 76 CS RE 12 12 MS KW 572

F (C)

45

(7.2) (7.8)

73 73

23 31

12 12

364

73 73 73 33 31 31 12 12

393 383

73 73 33 33 31

12 12

418 416

73 73 73 33 33 33 12 12

73 73 35

12 DF DF 460 442

73 73 73

35 35 33

12 12 DF DF DF

468 448 434

44

(7.2)

76 76

25 31

12 12

76 76

41 33 31

12 12 428 431

76 76

43 33

12 12 DF DF DE

76 76

43 43

12 DF DF DF 465 458

76 76

35 43

12 499 475

76 76

45 45

12 12 512 507

360

DC

399 384

420 397

33 33 12

DE DE

432 423

45 46

(7.8)

DC DC

423 405

439 425

12

453 444

12

466 459

484 482

46

31

31 31

48

(8.9)

73

31

12

12 DB 353

73

31

12

12 DC

373

73

31

12 12

DC

73

31

12 12

DD

73 73

33

12 12

73

33

12 12

DE

48

(8,9)

76

75

12 12

381

76 75

31

12 12

DD

76 75 33 31 12 12

DE

76 75 33 33 12 12

DF

76 75 43 33 12 12

DF

76 75 43 33 12 12

DG

650 Ton Selections (2286 kW)

ADJ. LVG.

CONO. WTR

TEMP.

(F)

85

29.4

90

32.2

92 5

33.6

95

35.0

36.4

97.5

100

37.8

<C) (4.4) S (5.5)

UN 81 CS 43 RE MS KW 482

UN 81 77 CS

RE MS DG DG KW 520 506

UN 81 77 CS RE MS KW 549

UN 81 CS 47 45 RE MS KW

UN CS 47 47 RE MS KW 584

UN 81 CS RE MS

KW 599 587

ADJUSTED LVG. CHILLED WATER

_ TEMPERATURE — F (C)

(6.7) 1 (7.2)

12

DG DF

461

45

12

47 45

12 1 2

DH

523

12 12

DJ DH

571

556 521

82

12

DJ

DJ DH 578 541

65 47

12 12

DK DJ

77 77 43 33 41

12

DF 464 425

45

12

DF DF 476 467

DG 498 j_483

77

DH

77 77

12 12

81 77

DJ DH

573

77 77

12

12 12

DE DE

77

43 43 41

12 1 2

77

77 77

43

12

DG DF

77 77 45

43

12

DG 510 492

77

45 37

12

DH

560

77

45 45

12

550

750 Ton Selections (2638 kW)

ADJ. LVG.

COND. WTR.

TEMP.

(7.8) (8.9) (F)

416 412

DF 456

476

DG

520 492

DH 540

77

41

31

12

DD

77

77 UN 41

12

DE

431

77

43 41

12 12

DF

446 KW 61

77

77 UN

43

33

12 12

DG 483

77 77

43 43

12

DG MS DL

77

77 UN

45

43 CS

12 12

DG 510

85

90

92 5

95

97.5

100

29.4

32.2 RE

33.6 RE

35.0 RE

36.4 RE

37.8 RE

(C)

: ¡4.4)

UN

CS

CS MS DK

KW UN

CS

KW

MS DM DL DL KW

82

RE

500 MS DH KW

554

12

MS DJ KW

587

UN

82 73

12

MS DK

82 73

12 12 12

630

82 82 82 65 73 63

12 12 1 2

665 637 604

82 82 82 67

12

708 661 644

ADJUSTED LVG. CHILLED WATER

TEMPERATURE — F (C)

(6.7)

(5.6)

82 82 82

47

39

500 DH DH DH 554 550 536

82

" 82

63 49 47

500 500

DJ DH DJ

591

82 82 82 63

12

DJ DJ

1

588 563 553

82 63

DK DJ 605 591 586

DK DK

65 65

12 12

(7.2)

45

12 12

82 82

12

542

578

47

500 500

DH DJ

82 63

63

1 2

DJ DJ

63

12

DK

597

12 1 2

DK 616

(7.8) (8.9)

82

45

43 43

12

DG

513

82

45

12

DH DH

559 521

82

47

45

12

578

82

82 47

500 564

82

82 63

12

DK DJ

592

82

..

82 82

63 63

DK 608

DG 488

DH 550

DJ 574

594

DK

599

82

12

82 43

12

82 43

12

82 45

12

82 45

12

63

12

m

700 Ton Selections

ADJ. LVG

COND. WTR

TEMP.

(F)

; (C)

85

i 29.4

90

32.2

92.5

33.6

;

95

: 35.0 RE

97 5

i 36.4

100

i

37.8

UN 81 81 CS RE MS KW 570

UN 82 CS 49 47

RE MS KW

UN 81 CS RE MS KW

UN 81 CS 65

MS KW

UKT 81 81

CS 65 65 RE MS KW 622

UN 81 CS RE MS KW

ADJUSTED LVG CHILLED WATER

1^5 1 42

1

(4.4)

(5.6) i (6.77

47

12

DJ

500 DJ 565 575

63

12

DJ DJ 570 597 552

12

DK DJ 603

12 12

DK

67

12 12

DL 673

TEMPERATURE — F (C)

4Q

(7.2)

81 81

45

43 43 41

12 1 2

DG DG DF

520 485

81 si

12

DJ

DH 530 517

81 81

47

12

DH

81 81 81

63 47 45

12

571 587

DJ

DK DJ

610 577

81 81

65 65

DK

DK DJ

628 617

12

475

81

45

43

12 1 2

DG

81

45 45

12 12

DH 539

12

DH 560 547

81 81

63 45

12

DJ 589

81

63

12 12

590

(7.8)

(8.9)

81

12

DF

DE

463 434

81

43 41

12

DG DF 498

478

81

43 43

12

DG DG 523 496

81

45

12

DH

DG 514

81 81

45

12

DJ

DH

566

534

81

45 45

12

DJ

577

564

800 Ton Selections (2814 kW)

ADJ LVG

COND WTR

TEMP.

81 41

12

81 UN

12

81

2

81 UN

43

12

43

12

81

12

(F) 1 (C)

85 : 29.4

90 i 32.2 RE

92.5 i 33.6 RE

95 : 35.0

97 5 i 36.4 RE

100 i 37.8 RE

UN 87 82 82 CS 47 RE MS DJ DJ DH KW 580

CS 71 71 71

MS KW

UN CS 73

MS DK KW

CS

RE MS

KW 644 647 633 607 600 590

UN

CS 75 65 73 63 63

MS KW 692 694

UN

CS 75 75 73

MS KW

ADJUSTEI

"40~1 42

(4.4) 1 (5.6)

500

85

12

DJ 590 592 579 585

85 82

12 12 12 1 2

632

^85 "

73 73 63 71 71 47

12 12 12 1 2 12

DL

85 82 82 82 82 82

12 1 2 12 1 2 12 1 2

DM DM DL

85

12 1 2

DM DM DL

71 1

0 LVG. CHILLE CERATURE —

TEM

500

589

—82~

DJ DJ DJ

DK

635

DL

44 1

'45

(6.7)

__

47 45

500 547

82

12

82 82

71 71

73

DK DJ 593 592

82 82 82

DK

654 641 632 597

82 82 82 82

82

12 1 2 12 1 2

714 675 669

D WATER

F(C)

46 1 48 ^

(7.8) I (8.9)

(7.2

500 DH 522

500 500

DK DK

DL DK DK

DL DL DK

45 45

500 500

DG DG

512

82

47

DJ 567

500 DJ DH 597

73

654

82 82

82 82 47 45

82 47

82 82

63 63

43

478

500 DH 530

82 45

500 557

500 DJ

61

635

*For additional tonnage and performance selections contact your nearest Carrier Sales Office (see page 50)

21

19EB Selection data

(cont)

850 Ton Selections (2989 kW)

ADJ LVG.

CONO WTR.

TEMP.

(F) i (C)

UN

85 29.4 RE

CS 71 MS

KW UN

90 : 32.2 RE 12

CS

MS DL KW 643

UN

CS

92.5 : 33.6

95 ; 35.0 RE 12

RE MS DL KW

UN

CS

MS DL KW 686

UN

97.5 i 36.4 RE 12

100 i 37.8

CS

MS DM DL

KW 728 UN 85

CS RE 12 MS DN DM

KW

ADJUSTED LVG. CHILLED WATER

r 40

(4.4)

661

TEMPERATURE — 42

(5.6)

85

71 47 47

12 12

DJ DJ

588

575 592 574

85

73

71 71 71

12

DK

603 592

85 85

73 71 71

12

12 12 12

DK

625 610 606

85

73

12

DL

667

85

85 85 85

75 73

12

687

85

75

75 73 73 12

748 736

44

45

(6.7) (7.2)

83

500 500

DJ DJ

85 85 12 12

DJ

DK

591 594 577

85 85

71

DK

85 85 85

71

12 12

DK

631

622

73 73 12 12

DL DL

675 669 636

85 85 12 12

DL

DM

688 682 646

690

1000 Ton Selections (3517 kW)

F(C)

48

46

(8.9)

(7.8)

83 83

45 500 500 DH

551

500 500 90 ; 32.2 RE 500 12

DJ DJ

DK DJ 598 589

DK DK 617

DK DK

DL DL

43 CS 75

DH

522 KW 686

85 83

47 45

85 85

71 45

12

500

83

71 71

12 12

613

85 83

71 71

12 12

631

85 85 73 71

12

ADJ. LVG.

COND WTR.

TEMP.

(F) < (C) (4.4)

UN 89

85 i 29.4 RE 500 12

MS UN

CS 77 MS

KW 769 709 685 UN 89

92.5 ; 33.6 RE 500 12 12

95 ; 35.0 RE

97.5 i 36.4 RE

100 ; 37.8

CS 79 MS

KW 851 UN 89 89 87

CS MS

KW UN 89 89 87

CS MS DP

KW 804 777 UN 89 89 87 "

CS 85 83 RE MS DP DN DN KW 850

ADJUSTED LVG.

40

DL

89 89

DN DM DL DL

DP

*

TEMPERATURE —

42

(5.6)

89

81

DL

661 639 639 637

81

89 83 81 81

DN

751

83

12 12 DN 773

83 83

12

CHILLED WATER

44 I 45 ! 46 ^

(6.7)

(7.2) (7.8) (8.9)

sF*

87 87 71 71 12

DL

DM 703

DN

752

DN

804

12 12 12

DL

89

87

81

81 12

12 12 12

685 672 654

89

87 87

12 12

DM DM DL

702

73

81

12 12 12

DM

730

83 73 71 12

12

DN

777 764

83 83 73 12

12 12 12

803

F (C)

71

DK DK

87 87

71 71

DL

81 71

694

87 87

81 71

DM DM 716 694

87 12

DN DM

...

87 ' 87

DN

792 766

48

87

71

624

DL

87

12

674

12

729

DN

900 Ton Selections (3165 kW)

ADJ. LVG.

COND. WTR.

TEMP.

(F) i (C)

UN 85

85 ; 29.4 RE

90 : 32.2

CS MS

KW 626 604 UN 85 85 85 85

CS 73 71 RE 12 12 MS KW 684 649

UN 85 85

92.5 ; 33.6 RE 12 12 12 12

95 : 35.0 RE

j

_

_____i______

;

97.5 ! 36.4 RE

j

100 ; 37.8

CS 83 73 71 71 MS

KW 708 686 UN 85 85

CS 75 73 MS

KW

1

UN 85 CS

MS KW

UN 85 85 CS RE 12 12 MS KW 834

ADJUSTED LVG. CHILLED WATER

TEMPERATURE -

40 42

(4.4)

(5.6) (6.7) (7.2) (7.8) (8.9)

81 71 71 71

12 12

DK

DL DL

DM

12 12

DN

747

703 691 657 642 637

75 73

12

DN

774

735

77

DP

773 734 719 714 673

44

45 1 46 48

85 85 85 85 83

12 12

DK DJ

DL DL DK

DM DL DL DL DK

85 85 85 85 85 12 12

DM

75

DN DM DM DM DL

DJ

595 588 587

71

12

DK DK DK DK

619

626

643

DM 707 701 712 649

85

85 73 12

73

85 73 12

85

637

85

71

73

DM

12

85 73 12

1100 Ton Selections (3869

F(C)

45

25

500

DJ DJ

582

85

71 71

12 12

613 600 KW

85 85

71

12

DK

631 618

85 85

71

12 12

71

83 12 12

DL

DM

85 85

71

73

12

ADJ LVG.

COND. WTR.

TEMP.

(F) ; (C) (4.4)

85 : 29.4 RE

90 ; 32.2 RE

92.5 : 33.6 RE

95 i 35.0 RE

I

97.5 ; 38.4 RE

100 37.8 RE

UN CS

MS

KW UN

CS

MS UN

CS

MS KW

UN

CS

MS KW

UN

CS

MS KW

UN CS

MS KW

ADJUSTED LVG. CHILLED WATER

TEMPERATURE —

40

42

(5.6) (6.7)

* *

*•

* *

*

* *

*

44 r

*

45

F(C)

46

(7.2)

(7.8) (8.9)

89

73 81 71

500

DL

680 693 676

500 DN

748 739

500

DN

776 772 740

12

DM DL

89 89 89

75

81 81

12

DM DM

89 89

75 81

12 12

DN DM

89 73 81

*

12 12

DP DN

839 762

89 89 77 81

*

500 12

DP

862

*

48

89 12

12

718

89

81

89

DN

802

89 83

*

12

DP

842

LEGEND

CS — Compressor GR — Gear-Refrigerant HE — Heat Exchanger KW — Power Input

MS — Motor Size

UN

Refrigerant Unishell

RE

22

UNISHELL COOLER

UNISHELL CONDENSER

10 20

FLOW RATE, GPM (lOO's)

10

I 0

20

10

lOOo

q:

a

Hi

50 g

(/)

UJ

-* 0 o10

15

10 15

20

1 5

100

50

-■ 0

30

20

100

50

- 100

10

20

15 2 0

30

50

100

10

20

1 5 2 0

50

-* 0 10

20 30

I 5 20

100

- 50

30

10

20

30

I 0 1 5

100

50

0

100

50

25

100

50

0

10

20 30 40

20 25

m

10

20

- 100

30

23

10

20 30

40

100

50

0

19EB Selection data (cont)

UNISHELL COOLER

FLOW RATE L/s

10 15

10 20

FLOW RATE.GPM OOO's)

1.0 15

10 20

10 1 5 20

20

30

25

30 40

25

- 100 o

- 50

0

50

100

UNISHELL CONDENSER

1.0 I 5 2 0 2.5

10

20

10 1,5 20 2 5 3.0

20 30 40 50

10 1,5 20 25 30 35

30

100

50

40

- 100

50

-■ 0

10 20 30

I 0

15 20 2 5 30

10 20

10 15 20 25

10 20 30

30

40

3 0

40 50

- 50

100

50

0

100

50

0

100

10

.5 l.O 15 20 25 30 35 40

20 30 40 50

20 40

10 15 2.0 25 30 35 40

20 40

60

- 100

- 50

0

100

50

0

1 0 15 20 25 30 35

10 20

30

40 50

- 100

- 50

0 5 10 15 20 25 30 3540 45

1 " I I " ' 1 " " 1 ' " ' I ' ' " 1 ' " ' 1 ’ ' " 1 ' " ' 1 ' ' ' ' 1 ' ’

100

t

50

24

Physiccil data

19EB

UNISHELL

RIGGING

WEIGHT

SIZE*

(lb) ~| (k¿)

71 72 19,325 j 73 20,675 1 75 21,325 1 76 22,050 i 77 22,525 j

81 (a)

19,175 1

26,800 Í

8,698 19,975 8,766 20,175

9,378

9,673

10,002 23,150

10,217

12,156 28,375 81 (b) 28,300 I 12,837 82 (a) 82 (b) 83 (a) 27,950 83 (b) 29,450 i

85 (a) 85 (b) 87(a) 31,300 i

8/(b) 89 (a) 34,925 i 89 (b)

27,125 1 1Z304 28,625 1

j

29,950 i

31,450 i 32,800 j

36,425 i

12,984

12,678 29,850

13.358 31,350 13,585

14,265 33,550 14,197 14,878

15.842 16,522

*(a) — with 11 thru 49 size compressor

(b) — with 51 thru 89 size compressor

OPERATING

WEIGHT

(lb)

21,625 22,350

23,675

29,875 28,850 30,350

32,040

33,600 35,100 37,465 38,975

(kg)

9,061 9,151 9,809

(lb)

2000 2000 2180

10,138 2180

10,501

2370

10.739 2370

12,871

2600

13,551 2600

13,086 13,767

13.540

2650 2650 2700

14.220 2700

14,533 3000 15,218 15,241 15,921

16,994

17,679

3000 3100 3100 3500 3500

OPERATING

CHARGE

R

12 i (kg)

; 907 1784 i 907 1784

989 1945 i 989 1945 ; 1075 ; 1075

i 1179 2319 i 1179 2319 i 1202 ; 1202 2364 : 1225 2408 i 1225 2408

j 1361 2676

1

1361 2676 ! 1406 2765 i 1406

I

1588

j 1588

(lb)

2114 2114

2364

2765 3122 3122

i 1416

1416

t

200 V

3.21 FLA/Kw

MAX

MTR

KW

LRA LRA LRA LRA Star

Delta

DB 363 2032 6351 1767 5522 DC 388

DD 418 2217 6929 1928 6024 1167 DE 443 DF 478 DG 523 — — DH 561

DJ DK 639 DL 692

DM DN 807 DP

FLA — Full Load Amps KW — Compressor Power Input (kilowatts)

2032 6351 1767 5522

2494

7795 2169 6777 1312

2494

7795 2169 6777 1312

— — —

597 — —

— — — — — — — 1993

_

746

875

—

— — — — 2139 6684 — — — — 2139 6684

230 V 380 V

2 79 FLA/Kw

Delta Star

Star

- -

-

— 1507

-

—

1.69 FLA/Kw 1.39 FLA/Kw LRA

1069 3342 1069 3342

1458 4557 1410

1847

2139 6684

Electrical data

460 V

1 12 FLA/Kw

LRA LRA LRA

Star

Delta

883 2761 883 2761

3646 964 3012

1084

4101 4101 1084

1205

4405 1164 3639 932 4709 1245 3890 996

5772 1526 6228 1647 5145

1767 1767 5522 1767 5522

LRA — Locked Rotor Amps MTR — Motor

LRA LRA

Delta Star

707 707

3388 867 2711 3388 867 3765

4769 1221

5522

771

964

1317 4116 DL 659 837 483 1414

1414 1414

575 V

MAX 270 FLA/Kw

MTR

KW Delta 2209 DB 344

2209 DC 369 468 271 2410 DD

2711 DF 3012

2912

3112 DJ 3815

4418 DM 709 4418 4418

398 505

DE 421 534

453 497 630

DG DH 533 678

568

DK

609

DN

770

DP

835

DQ

875

2400 V

LRA LRA LRA

442

576 333 200

722 774 447

900 519 1007 1060 613 1110

NOTE; Overload Trip Amps = FLA x 1 08

4160 V

156 FLA/Kw .094 FLA/Kw

255

292 176 308

364 219

392 417 251

618

644

6900 V

__

186

236

269 291

313 336

370 388

25

19FA Selection data

19FA*

1000-1600 TONS

(3517-5627 kW)

1200 Ton Selections (4220 kW)

ADJ. LVG

COIMD. WTR

TEMP.

(C) <4.4)

(F)

85

90 32.2 HE 2224

92.5

95

97 5

100

CS GR

29.4 HE MS KW

CS GR

MS EB KW

CS GR B500 HE

33.6 MS KW

CS 565 GR HE

35.0 MS EC KW 1139

CS GR

36.4

HE MS EC KW 1174

CS GR

37.8 HE MS KW

ADJUSTED LVG CHILLED WATER

TEMPERATURE^— F (C)

(6.7)

(5.6)

561 B500 2224 2224

B500

1057

2225 2224

1078 1064

B500 2225

C500 2225

1216

551 551 557

B500

EB

EA

972

946

563

553 551 B500 2224

EB 1027

563

553 B500

EB

EB EB

563 B500 B500 2225 2224

EC EB 1077

565 555

B500 2225

EC 1 141

563 565

B500 B500 B500 2225

ED

EC 1176 1146 1097

(7.2)

B500 A500 A500 B500 2224 2224

EA EA EA EA 924 910

551

B500

2224 2224

EB

EA

972 963 553 551

B500 B500

2224 2224 1037

1062 1052

B500 B500 2225 2224 2224 2224

1079

2225

EB 991

553 553

B500 2224

EB

553 553

EC EB

1080

555 553

2225

EC EC

(7.8)

2224

B500 A500 2224

B500 2224 2224

1045 977

B500

1068 1051

B500 B500 2225 2225

1078

(8.9)

541

557

2224

885

887

557

551

2224

EA

EA 957 920

551

B500

EA

EB

964_

969

551

553

B500

EB EB

553 553

B500

EB

553 553

EB

EC

1066

1100 Ton Selections (3869 kW)

ADJ. LVG

COND WTR

TEMP.

(C) (7.2)

(F)

85

90

CS GR

29.4 HE MS KW

CS GR

32.2 HE MS KW

CS

92 5

95

GR

33.6 HE MS KW

CS GR HE

35.0 MS KW

CS

97 5

HE 2224 MS KW

GR

36.4

CS 561

37.8

GR HE MS KW

100

ADJUSTED LVG

TEMPERATI

'" 40 1 42 1 44

(4.4) ! (5.6) ! (6.7)

551

563 555 556 555 545 B500 2222 2224

i 553"" 551

B500

2224 2222

B500 B500

2224

B500 2224 2224

1047 990

B500 B500

1067

2224 2224

1110

A12

EA DP 883 863 812 793 783 788

B500 B500

EA EA 966 915

553

553 551 551 557

2224 2224 2222

EB

EB EA EA EA DP

980 965

555

553 565 551

B500 A12 B500 A12 A500

EB EB

555

553

2224

EB EB

1020

B12

555 553 553

B500

EC EC EB EB EB EB

1077

CHILLED WAT JRE - F (C)

”l¥n~46

(7.8) (F)" (C)

A500 A500

2222 2222 2222 2222

DP

551

2222

EA DP DP DP

900 872

B500

917

2224 2224 2224

EA

959 936 903 886 553

B500

2224 2224 2224

EB 998

B500 2224

1023 1015 984 973

A500

DP

563

A12

2224

2224 2222

B500

A500

2222

914

EA

565 565 551

A12 A12 B500

EB 966 954 935

B500 A12 B500 2224 2224

ER

.

(8.9)

A500

DP

541

563

A12 B500

857 868

561

A12

2224

889 837

557

563

2222

EA

2224

EA

543

565

2224

1300 Ton Selections (4572 kW)

AD

ADJ. LVG.

COND. WTR

TEMP.

29.4

85

90 32.2

92 5 33.6 HE

95

35.0

36.4

97.5

100

37.8

LEGEND

CS HE

KW

RE UN

GR

MS

Compressor GearRefrigerant Heat Exchanger Power Input Motor Size Refrigerant Unishell

JUSTED LVG.

TEMPERATI

'""40""

(4.4)

(5.6)

563

CS GR B500 HE 2425 MS KW 1073 1006

CS

B500

GR

2425

HE MS

1142 1 104

KW CS 565 GR B500 B500

2425 2425

MS

KW 1202 CS 565 561

GR B500 C500

HE

2426

MS KW

1227

CS 563

GR C500 HE

2426

MS ED KW 1267

CS

GR

C500

HE

2427

MS KW

1299

561 B500 B500 B500 2425

EB

563

563 561 551 B500 B500 B500 2425

EC

EC EB EB

563

ED

EC

1138

2425

ED

EC

1178

565 B500 2426

ED

1224

563

565 B500 2426

ED ED

1268

CHILLED WATER

JRE — F (C) " 45 r 46 ' 48

(6.7)

(7.2) ; ¡7.8) 1 ¡8.9)

551 551

2425 2425

EB EB 979

2425 2425

1041

553 561 B500 B500 2425

EC

1109 1063

563 553 B500 B500 2425 2425

EC EC

1138 1123 1106 1046

563 563 B500 B500 2426 2425

EC EC

1160 1156

565 563 B500 B500 2426 2426

ED EC

1231 1178

965

1030

2425

EB

B500 A500 2425 2425

B500 B500 2425 2425

1010 99L.

B500 B500 2425 2425

1046

B500 B500 2425

B500 2425

1143

B500 2425

1175

551 555

EA EA 966 909

551 551

EB EB

561 551

EB EB

1017

553 551

2425

EB

EC

551

553

C500 2425

EC EC

11 29

553

563

B500 2425

EC

1142

26

1400 Ton Selections (4924 kW)

ADJ. LVG.

CONO. WTR.

TEMP.

(C) (4.4)

(F)

85

90 32.2

92.5 33.6

95

97.5 36.4 HE

100

29.4

35.0

37.8

■

CS

GR C500 HE MS

KW 1151 CS 565

GR B500

HE 2526 MS KW

CS GR HE 2526 MS KW 1300

CS 563 GR C500 HE MS KW

CS GR

MS ED KW

CS GR HE MS ED KW

ADJUSTED LVG. CHILLED WATER

TEMPERATURE — F (C)

40 42

(5.6)

561

8500

2526

2526 2526

EC

1081 8500

2526

bD

1261

1187

563 561

C500

2526

ED

1220 1182

8500

2628 2526

ED

1298 1294

565

8500

2829

2529

1303

1300

565

8500

2931

2829 2528

1305

1301

44

(6.7)

561

8500

EC E8

1051 1036

563

561

8500

2526

EC

1121

563 563 8500 2526

ED

EC EC

565

563 563 8500 2526

ED

ED ED

1220

565 561

C500

2526 2526

ED

ED ED

1265

565

565 565

8500

ED ED

1310

45

(7.2) (7.8) (8.9) (F)

561 8500 2526

E8

561 8500 2526

EC

1097 8500

2526 1169

8500

2526

1196

561

C500

1239

8500 2527

ED

1300

8500 2526

1023

8500 2526

1080 1054

8500 2526

1117 8500

2526 1184

8500 2526

1216 1191 C500

2526 1261

1600 Ton Selections (5627 kW)

46

48

551

565

A500

2526

E8

EA

956

561

551 8500 2526

EC E8

551 8500 2526

EC

1088

563 561

8500 2526 95

ED

EC 1115

563

563 8500 2526

ED ED 561

563 CS

8500 2526 100

ED

1223 KW

85

90

92 5

97.5

ADJ. LVG.

COND WTR.

TEMP.

1 iC) j

Ì

; 29.4 HE

Ì

{

i 32.2 !

i 33.6

! i

1

; 35.0

i

Ì 36.4 HE Ì

i

;

i 37.8

CS GR

MS KW

CS GR HE MS KW

CS

GR HE MS KW

CS

GR HE MS KW

CS

GR MS

KW GR

HE MS

ADJUSTED LVG. CHILLED WATER

42 T 44 “|—45^’

40

(4.4)

(5.6) 1 (6.7) i {7.2)

561

C500 C500 8500 8500

*

2729 2728 2728

1292

C500 C500 C500

*

2931

1301 1299 1291 1282

561 563 561 561

ED ED

1245 1231 1170 1131

561

561 561 561

2829 2729

ED ED ED ED

i (7.8)

ED EC

561 561 561

* *

C500 C500 C500 2931 2929 2729

ED ED ED

1305 1.308

1296

561

* *

C500 8500 8500

*

2932

ED

1297 1308 1304

* * *

*

* * * *

*

46

48

(8.9) i 8500

2728 2728

C500 8500

2728

EC 561

2728

ED

1198

561 8500 2728

ED 1249

563 563

2930 2729

ED ED

563 8500

*

2930

ED

1.306

*

1500 Ton Selections (5276 kW)

ADJ. LVG.

COND. WTR.

TEMP.

(C) (4.4)

(F)

85 29.4 HE

CS

GR MS

KW CS

GR C500

33.6

35.0

HE

MS

KW CS

GR

HE MS

KW CS

GR

HE

MS KW

90 32.2

92.5

95

CS

97.5 36.4 HE

GR

MS

KW CS

GR

37.8

HE MS KW

100

ADJUSTED LVG. CHILLED WATER

40 42 44

TEMPERATURE — F (C)

45

(5.6) (6.7) (7.2)

561 561

C500

2627

ED ED

1252

561

2829

ED

1279

561 C500 2930

ED

1296

*

C500

*

* *

C500 2627

1198

C500 2627

1280

C500 C500 2629 2627

1301 C500 C500

2829 1309

2931 1303

561 8500 2627

EC 1127 1104

561 561

C500

2627 2627

ED ED

1231 1212

561

561 561

ED

ED 1273 1251

561

561 561

2628 2627

ED

ED 1298 1290

561 561

C500 2829

ED

ED ED

1301 1307

561

C500 8500

2931

ED

1300 1296

561 8500 2627

EC EC

563 561 8500

ED

C500 2627

ED

C500

ED

561 C500 2629

563 2930

ED

(7.8) 8500

2627 1083

8500 2627 2627

1162 8500 8500

2627 1225 1155

C500 8500 2627

1270

C500 2628

1295 1264

8500 2829

1298 1292

46 48

(8.9)

561

551 8500 2627

EB 1073

561 8500

EC EC

1123

563 561

2627

ED

EC

561

2627

ED

1198

561

563 8500 2627

ED

563

563 8500 2628

ED

LEGEND

CS —

Compressor Gear-Refrigerant

GR -

HE — KW —

MS —

RE —

UN —

Heat Exchanger

Power Input

Motor Size

Refrigerant

Unishell

*For additional tonnage and performance selections contact your nearest Carrier Sales Office (see page 50)

27

19FA Selection data (cont)

COOLER

FLOW RATE L/s

4 6

4 8 12

FLOW RATE, GPM (lOO's)

I 0

10

“ 150 ;

100 I

-

150

iOO

50

0

150

CONDENSER

20

150

100

50

0

150

I 00

50

0

I

I I

0 I

0 4 8 12

0 2 4

,6 8

16

10 1 2

I 0 ! 5

150

10

I 0 I 5

20

) 0 I 5

20

100

50

0

150

100

50

0

150

100

50

0

100

50

\ss

0

- 150

- 100

50

0

150

100

50

0

30

10 20

I 0

60

50 40 30 20

10

¡4 PASS|/

^ '

/i\

/

13FASS

/

Î (6 CONDENSER

PAS

|2

20

I 5

IIP

I 0 15

20 30

150 50

100

50

0

28

0

I—^—r-i-

60

40 30 20 10

l4 PASS

/

2 0

rn

PA£iSl

|3

/

=AS

1

?

''

/

10

Î6 CONDENSER

ii

20 30

\i PASS!

! 50

100

50

0

#

COOLER

FLOW RATE L/s

10 15

CONDENSER

1 0

1 5

20

^ §60

^50

o40

k30

§20

UJ

?^I0

4 PASS / i 1 1

/

3P

ASS

/■

/

¿

/

7

io 20 30

2 PASS

FLOW RATE.GPM (lOO's)

10 20 30 40

10

20 2 5 30

I 5

I !8 CX>0L.ER

—^1 PASS! —

150^

100 Û

50 OT

q:

0 Cl

150

100

50

0

I 50

100

50

60

Û.

o

u

a:

</)

UJ

50 40 30

20

10

|4RASSL

/

|3

PASS!

f

/

I 0

«.Li

K

20

15

/

10 15 20 25

i Ü8C0NDEN

30

2 0 2 5

1 pass:

:rr

SER

150

I 00

- 50

0

40

30

150

100

50

0

150

100

50

0 5

(“T-r-T-n-i

60

50 40 30

20

10

20

10 15 20 25 30 35

30 40

0

50

5 10 15 20 25 30 35

0

I I ' I ' ' ! ' ' ' ‘ I I ' I I I ' I I I ' I I I I I I ' I '

/4 PASSj

3P/

z'

n

/

>

10

20

I 0

15 20 2 5 30 35 40

20 40 60

10

15 20

T-p-

n~

-7“ 1

T ^ss|

FA.s\

30

25 30 35

1 ' ' ' ' I ' ' ' ' I ' ' ' ' 1 '

1 i 21 COOLER

- --

-

40

—

1 WbS [

150

!00

50

mr

0

10 15 20 25 30 3 5 40

! 50

- 100

50

^ 0

0

I 50

I 00

50

20

10 15 20 25 30 35 40 45

60 50 40 30

20

10

20 40

40 60

60

150

100

50

0

150

- 100

50

0

I 50

100

50

0

29

19FA Selection data (cont)

COOLER

10 15 20 2 5 30 35 40 45

0 5 10 15 20 25 30 35 40 45 50

[ ■ T l r r [ I r r I I r r i - T - p - r I I I . I I I I I . . . I I I . I I I ■ I . I I I I I I . I I I I

1 0

FLOW RATE L/s

20 40

FLOW RATE, GPM (100's)

2 0

30 40 5 0

60

150Î

Û.

lOoê

ÜJ

50 3

C/Î

(/)

0 ?

150

100

50

0

CONDENSER

10 15 20 25 30 35 40 45 50

’T' l"^' ' ' I ' ' ' ' I ' ' ' ' I '

150

Q

LÜ

1 0

20 30

100

50

0

“1—

150

- 100

^ 50

- 0

1.0

60

60 50 40 30

20

10

I 0 50

4Pt^SS

-

7

•

1/

5PAS

T

/

7

20

2 0

25

2

-

r

40 60 80

3 0 4 0

50 75 100

3Sl

23 COOLER

PA

\

50

0

150

100

I 0

2 0 30

40

- (50

100

- 50

0

“I— 60 50 40 30

20 10

5S

150

100

50

0

60

150 50

100

50

40 30

20 10

0

4>Ai

i

—

/

,/

PA

3

L

3S

-

— — 12 =ASS

y

25 50

10 20 30 40 50 60

—1

PA

ss] 1

Ti

/

7

/

=A

/

Î P

_

^ss

1Z]

25 50

28 CONDENSER

— —

—

IL

75

1 29C0NDENÎ

75

“I PA

-^1

100

M

ÎER

PA

ss-

>S'

100

150

100

50

0

150

iOO

50

0

10 20 30 40 50 60 70

150

100

50

25

30

50 75 100

125

0

#

CONDENSER

FLOW RATE L/s

30 40 5.0 60

20

10

25 50 75 100

10 20 30 40 50 60

19FA

HEAT

EXCHANGER

2121

2122 2222

2224 2225 39,420 2422 2425

2426 43,100 2525 42,780

2526 43,230 2527 2528 45,050 20,434 2529 2627 45,000 20,412

2628 2629 2728 2729 2828 2829 2929 49,780

FLOW RATE, GPM (lOO's)

RIGGING

WEIGHT

(lb)

35,600

35,900 16.284

37,680

38,960

39,480 42,670

44,740 45,350 20870

45,310 45,610 48,930 49,240

49,200

49,500

70

125

70

80 90

~1~

OPERATING

(Kg)

16,148 37,900

17.091 40,160 17,672 41,530

17,881

17,908 42,160

19,355 45,620

19,550 46,140

19,405 45,820

19,609 46,360 20,294

20,552 48,780

20,688 49,170

22,194

22,335 52,960 22,317 22,453 53,320

22,580 53,680

(lb)

38,300

42,180

47,960 21,574 48,420 48,820 22,144 48,320

52,570

52,930

8.0

150:

o

100 e

50

0

~T

150

I 00

50

0

Physiccd data

WEIGHT

()tg)

17,191

17,373 2580

18.216 18,838 19,133 2868

19.123 20,693

20,929 3060 20,784

21.029 3096 21,963 3336 21,918

22,126 3384 22,303 3372

23.845 3660

24.022 3660 24,009 3720 1687 24,186 3708

24.349

(lb)

2700 2880

2892

3060 3096

3336 3336

3384

3780

OPERATING

R-

CHARGE

12

(Stg)

1170 2150 i 1170 1225 1306 2400 i 1301 2390 1084 1312 2410 1388 2550 i

1388 2550 1157 1405 1405 1513 1513 1513 1535

1535 1530 1660

1660 3050 1

1682 3090

1715

2250

2580 ! 2580 !

2780 2780 1

3050 3100 3150 >

R-500

(lb) j

2150 1

2780 i

2820 j

2820 ! 2810 f

AREA

TO

INSULATE

{k9>

975 975 200 i

1021 200 :

1089 1093 213 1

1157 213 : 19.8 1170 213 i

1170 213 i

1261 213 i 19.8 1261 213 i 1261 213 i 1279

1279 1275 1383 1383 1406 1402 1429

(sq ft) i

200 i 18.6

200 • 200 i 18.6

'■”'Tî3~T“

213 ; 19.8

213 1

213 i 242 ! 242 i

242 i 242 1 242 1

(m*)

18.6

19.8

22.5 225

22.5

Electriccd data

MTR

DM DP

EA 968 2250 7025 1800 EB EC 1188 2770 8655 2218 6930 ED

MAX

KW

746 1768 875 1768

1080 2510 7845 2010 6275 1310 3050 9540 2440 7630

460 V 575 V

LRA

Star Delta Star

1.39 FLA/Kw 1.11 FLA/Kw

1.38 FLA/Kw

5523 5523 1414

LRA

Delta

1414

1.10 FLA/Kw

4418 900 4418

5620 1346

2400 V 4160 V

LRA LRA

.270 FLA/Kw

1060

.264 FLA/Kw .153 FLA/Kw

1502 866 1660 958 1828 1053

31

.156 FLA/Kw

519 613

770

6900 V

LRA

.094 FLA/Kw

313 370

.092 FLA/Kw

469 523 577 636

FLA — Full Load Amps KW — Compressor Power Input (kilowatts) LRA — Locked Rotor Amps

NOTE: Overload Trip Amps = FLA x 1 08

19CB Selection data

19CB*

1600-2000 TONS

(5627-7034 kW)

1600 Ton Selections (5627 kW)

ADJ LVG.

CONO. WTR

TEMP.

iC) ¡4.4!

(F)

85

90

92.5

95

97.5 36.4

100

HE 77 77 CS

29.4 RE 114 114 MS KW 1144

HE 77 CS 41 41 RE 114

32.2 MS BY BY KW

HE 77 77 CS RE 114 114 114

33.6 MS KW

HE 77 77 CS 41 41 RE 114 114 114

35.0 MS BY BY BY KW 1292 1257

HE 77 CS 41 41 RE 114 114 MS BY BY KW

HE

CS

RE

37.8 MS XX BY KW

1700 Ton Selections (5979 kW)

ADJ. LVG.

COND. WTR.

TEMP.

(F) ; (C)

85 : 29.4

90 ; 32.2 RE

92.5 ' 33.6 RE 114 114

95 35.0 RE 114 114

97.5 36.4 RE ;

100 : 37.8

HE 77 77

CS 41 41 41

RE 114 114 114 MS BY BY BX KW 1223

HE 77

CS

MS BY BY BY KW 1300 1264

HE 77 77

CS

MS BY BY KW 1344 1304

HE

CS 41 41 41

MS KW

HE 77 77

CS

MS KW 1467 1392

HE

CS 42 41 41

RE 114 114 MS KW 1514

ADJUSTED LVG. CHILLED WATER

40

42 44

fS.S) (6.7! (7.2)

41

41 41

BX BX

1120

77 77

114 114

1208 1180

41 41

BY BY

1248 1215

77 77 77

1340 1301 1267

77

77 77

42 41

114

114 114

1409 1349 1310 1294

ADJUSTED LVG. CHILLED WATER

40 42

(4.4!

114 114 114

XX BY

1388 1347 1312

114 114

XX XX

XX

TEMPERATURE — F (C)

¡5.6!

1195

41

41 41

77 77 77

41 41

77 77

42

41 41

77 77 77

XX XX

1446

r“lÌ5”

77 77

114 BX

1098

BX

1160

BY

1189 1176

41 41

1226

41 41 114 114 BY BY

41 BY BY

44 45

(6.7!

1174

1236 1221

114 114 114

BY BY

1272

114

BY

114 114

BY

1355

114 114

1399 1379

41

114

BX

1088

77^

41 41

114

BX

1148 1137 1118

77 77

41 41

114

BY

77

77 77

114

BY

1213

1251

77 77

41 41

114 1 14

(7.2)

77

77 77

41

114

BX

1163 1152

41 41

114

BY

77 77

41 41

1257

77 77

41

114 114

BY BY

1295

77

77 77

41

BY

1338

77

41

XX BY

(7.8) (8.9)

77 77

41 114 BX

1079 1057

77 77

41 41

1 14 1 14

BX BX

77

41

1 14

BX BX

1169 1149

41

1 14

BY

1198

77

41 41

114 1 14 BY BY

1238

BY BY

1278 1249

46

(7.8) (8.9)

41 41

114 1 14 BX

77

1 14 1 14

BY BY

1209 1186

77

41

BY

1243

77

41 41

1280

41 41

114 BY BY

1320 1291

77

41 41

1 14

1365 1331

41 114 BX

77

41

1 14

77

41

114

BY

1176

77

1210

77

41

114

48

77

BX

1128

77

41

77

41

1 14

BY

1218

77

114 BY

1253

77

114

77

114 BY

1800 Ton Selections (6330 kW)

ADJ. LVG.

COND. WTR.

TEMP.

(F) (C)

85 29.4

90

32.2 RE

92 5

33.6

95

35.0

97.5

36.4

100

37.8

HE CS 41 RE MS BY KW

HE CS

MS KW

HE CS 42 RE MS XX XX KW

HE CS 42 41 RE MS KW

HE

CS 42

RE MS XX KW

HE

CS 42

RE MS KW

ADJUSTED LVG. CHILLED WATER

TEMPERATURE — F (C)

i (4.4) (5.6) (6.7)

77

77 77 77

114

1318 1283 1252

114 114 114

XX BY BY BY

1401 1361 1322

114 114

1492

1 14

XX XX

1536 1447

1 14

1585 1537

114

XX

1597

41 41 114 114 114 BY BY

77 77

41 41 41

77

1400

77 77

114 114

77

114

XX XX

88 77 77

114 114

XX

1583 1504

77 77

77

41

41 114 BY

1363 1344

41

XX XX

1402 1382

77 77 42 41 41

114 114

1451 1427

42 41

XX

77 77

77

1900 Ton Selections (6682 kW)

ADJ. LVG.

COND. WTR.

TEMP.

.Jfl _

85

29.4 RE

90

32.2

92.5

33.6

95

35.0

97.5 36.4 RE

100

37.8

LEGEND

CS — Compressor GR — Gear-Refrigerant

HE — Heat Exchanger KW — Power Input MS — Motor Size RE — Refrigerant UN — Unishell

32

(C)

HE

CS 41

MS XX XX KW

HE

CS 42

RE MS XX

KW

HE

CS 42

RE

MS XX

KW HE

CS

RE

MS

KW

HE CS

MS KW

HE

CS

RE

MS

KW

ADJUSTED LVG. CHILLED WATER

40 42

(4.4! (5.6)

114 114

1422 1374

1 14 114

1564 1465

114 114 114

1593 1562

TEMPERATURE — F (C)

77

78 77 77

*

1590

* *

*

(6.7) (7.2)

77 77

41

BY BY

1341

77 77

41 41 41

XX XX

1416 1395

42 41

XX XX

1460

78 77 42 41

114 114

XX XX

1510 1485

XX XX

1541

*

XX XX

1574

41

114 114

78

41 41

114 114

88 78 77 77

41 41

114 114

(7.2)

<7.8) (8.9)

41

BY

1238

41

114 1 14 114

1308

41 41 114 114 BY

41 114 1 14

XX

77

41 114 114

XX XX

1479

45

77

41

1325

77

XX

77

41 114

XX

1439

77

41 114

XX

77

1535

1566

77 77

41

1 14 114

BY

1224

77 77

41 41

BY BY

1293

77 77

BY BY

1330 1300

77 77

41 41

BY

1369

77

77 77

41 41

114 114

XX XX

1408 1372

77 77

41 41

1455 1417

46

(7.8)48(8.9)

77 77

41 41 114 BY BY

1309 1278

77 77

41 41 114

XX BY

1378 1350

77 77

41 41 114 114

XX

1418 1384

77 77

41 41 114 114

XX

1463 1421

77

41 41 114

XX XX

1511 1466

41 41 114 114

XX XX

1 563

1201

1513

41

BY

1264

41

114

77

114 BY

1338

114

XX

114

14

XX

77

114

t

2000 Ton Selections (7034 kW)

ADJ. LVG.

CONO WTR.

TEMP.

(C)

85

29.4

90

32.2

92.5

33.6

95

35.0

97.5 36.4

100 37.8

HE CS RE MS KW

HE ' CS

RE MS

KW

he'

CS

RE MS

KW

'he'"

CS

RE MS

KW

he'

CS

RE MS

KW_

he'

CS

RE

MS

KW

ADJUSTED LVG. CHILLED WATER

TEMPERATURE - F (C)

40

42

44

(4.4>

(5.6)

87 41

114

XX

1461

^ 88

42

114

XX

1590

(6.7)

8'7

41

114

XX

1414

41

114

XX

1486

'"si" 41

114

XX

1534

88'

41

114

XX

1586

'T'45 "

i (7.2)

I '8'7

I

I 1 14

88'

41

XX

1397

88'

41

114

XX

1462

88"

41

1 14

XX

1508

41

1 14

XX

1558

(7.:8)

1380_

1458

1484

1530_

1582

46

87

41

114

XX

87 41

114

XX

88'

41

114

XX

88

41

114

XX

88

41

114

XX

48

(8.3)

87 41

114

BY

1350

"s'f '

41

114

XX

1423

87 41

114

XX

1462

88

41

114

XX

1486

' 'is'

41

114

XX

1533

88

41

114

XX

1582

LEGEND

CS

GR

Gear-Refrigerant

HE

Heat Exchanger

KW

Power Input

MS

Motor Size

RE

Refrigerant

UN

Unishell

Compressor

COOLER

I 0

20 30 40 50 60

20 40 60

FLOW RATE.GPM (lOO's)

10 20 30 40 50 60

25 50 75 100

FLOW RATE L/s

80

200 25

I50g

100^

50 (/)

LlI

cc

0 CL

200

I 50

! 00

50

0

CONDENSER

0 10 20 30 40 50 60 70

80

Q_

Û

3

60

''

3PASS

40

20

80

40

20

/

zi

0 10 20 30 40 50 60 70 8 0

|4 PASS

T

/

/'

25 50

I ^ ^ ^ p

!

3PASS

/

1

/

z'

■■

25 50 75 100 125

3A

2

|2 PASS

; 7 CONucNScR

iSi

75 100

8 CONDENSER

,1 PASS

P

200

150

100 50 0

200

150

100

Ï-

- 50

- 0

*For additional tonnage and performance selections contact your nearest Carrier Sales Office (see page 50)

33

19CB Selection data (cont)

Physiccil data

r

MACHINE

SIZE

(cooler & condenser)

77 78

87 88

Electrical data

MAX

MTR

BX

BY

XX

1176

1376

1602

KW

VOLTS 440

FLA/Kw

LRA Star

LRA Delta

OLTA

FLA/Kw

LRA Star

LRA Delta

OLTA

FLA/Kw

LRA Star

LRA Delta

OLTA

RIGGING

WEIGHT

(Heavy Section)

(lb) 34,400 15,604 64,240 34,900 35,400

35,900

1 423

2100 6600

1.537 1 437 1 38 1 318

2650 8400

1.549 1.48 1.422 1 428

3000 9400

1 543

(kg)

15,830 16,057

16,284

460 480 550

1 37

1 305

2190

2280

6950 7300 5300 1310

1.47

1.410 1.230

2775 2900 2100 8800

9150

1.37 1 305 1 141

3100

3200

9750

10100

1 47 1 414

OPERATING

(lb)

64,930 65,430

66,110

1 139 272

1680

1 150

6650

1.242 2400

7500

1 234 296

WEIGHT

2300

—

.294

274

—

1370

.296

273

—

1750

(kg)

29,139 29,452

29,679 29,987

4160

735

_ ^ _

830

^.164

" 15Ì

1050

164

OPERATING

CHARGE

R-114

(lb) (kg)

54ÒÒ 5400

5400 5400

244Q 350 i 32.5

2449 350 ■; 32.5 2449

2449

AREA

TO

INSULATE

(sq ft) i

350 ; 350 i 32.5

(m2)

32.5

FLA — Full Load Amps per ea kw input KW — Compressor Power Input (kilowatts) LRA — Locked Rotor Amps OLTA — Overload Trip Amps per ea kw input

f

34

Typiceil piping and wiring

LEGEND

— Cooling Tower Fan Starter

1

Condenser Water Pump Starter

2

Cooler Water Pump Starter

3

Pilot Relay

4

— Oil Pump Starter

5

6 — Fused Disconnect for Oil Heater and Thermostat

7 — Fused Disconnect for Purge System

8 — Fused Disconnect

9 — Compressor Motor Terminal Box

10 — Compressor Motor Starter

11 — Cooler Water Pump 12 — Condenser Water Pump

NOTES:

1

Wiring and piping shown are for general point-of-connection only

and are not intended to show details for a specific installation Certified field wiring and dimensional diagrams for specific 19 Series machines are available on request

All wiring must comply with applicable codes Refer to Carrier System Design Manual for details regarding piping

techniques A separate 115-volt fused power source for controls is required

unless compressor motor control is furnished with a transformer Provide a separate fused 115-volt power source for oil heater and

thermostat

35

Nozzle arrangements

19DH

COOLER

NOZZLE NO.

Pass

*3-pass available on 50 thru 78 Size Unishells only

t4-pass available on 61 thru 78 Size Unishells only Complete nozzle arrangement consists of the cooler arrangement

followed by the condenser arrangement For example

In

11 ” 8 ”

1

4t

8

12

9 7

12^ 7 "

9

12

9 7 J

2-pass cooler with leaving nozzle Number 10 = Arr R

1 -pass condenser with leaving nozzle Number 2 = Arr X

Complete nozzle arrangement = RX

Out

11

10

ARR

'p

Q

R

S T

u

H

CONDENSER

NOZZLE NO.

Pass In

2 ~

i

1

5 _

4

2

1

4 "

o *

o

1 4

4t

1

Out

5 ’

2

6

3 3

6 6

3

ARR

w

19EB

(s) © Ó

COMPRESSOR END

COOLER

NOZZLE NO.

Pass

X Y

Z

M

N K

L

Complete nozzle arrangement consists of cooler arrangement followed by condenser arrangement For example

In

11

1

I

8

12 ”

9

9 7 3 1 z

12

o

9 10

12 ■

A

9

2-pass cooler with leaving nozzle Number 10 = Arr R

1-pass condenser with leaving nozzle Number 2 = Arr X

Complete nozzle arrangement = RX

ARR NOZZLE NO

Out

s' 2

11 10

7 ~

Q ^ R 2

T -

u ^

H ' \ '

7

J ^

(j$ (¡2)

MOTOR END

CONDENSER

Pass

1" ^ 5 2

6 3 4 i\F

6 1 N 6 ^4 k'

3 1

Out

5 w 4 ~

ARR

X

V

L

36

19FA 19CB

COOLER

NOZZLE NO

Pass

In

.

T2’

1

15

1 1 '

13

14 16

1 1

13 14 16

11

13 14 16

Complete nozzle arrangement consists of coder arrangement

followed by condenser arrangement For example:

2-pass cooler with leaving nozzle Number 14 = Arr F 1-pass condenser with leaving nozzle Number 3 = Arr R Complete nozzle arrangement = FR

Out

12

13

11

16 14

14

16

11

13

11

16

14

ARR

À B

c

D

E

F

G H

J

K

L^

M

N

P

CONDENSER

NOZZLE NO.

Pass

In

1

10

ARR

Out

3

8

8 5 1

4

9

4 "22

9 7

Q

3 R NOZZLE NO.

S

6 T 7

u 17 V

w

X

.

.......

COOLER

Pass In Out

13 17

141812

2

14 16

18

14 1 1

18 15

FRAME

SIZE

7 & 8

Cooler

Condenser

Complete nozzle arrangement consists of the cooler arrangement followed by the condenser arrangement For example

2-pass cooler with leaving nozzle Number 16 = Arr S 1 -pass condenser with leaving nozzle Number 8 = Arr E Complete nozzle arrangement = SE

'“Î

ARR

13

R

16

S

T

12

u

V

w

NOZZLE SIZE (in.)

Schedule 20 pipe

Passes

2

16

12

16

14

CONDENSER

NOZZLE NO.

Pass

1

3

101010

10

n Out

3 ~ 8

8 2

7

1

10

6

1

6

10

ARR

3 4

9

5 5

E

X

Y Z

0

N

A

C

37

Dimensions

MOTOR STATOR AND ROTOR REMOVAL

(SEE SERVICE CLEARANCE FOR MOTORS TABLE)

19DH

SPACE FOR SERVICE AND ACCESS

ALLOW 2'-0"(6IOmm) MIN

CLEARANCE ALL AROUND

UNIT

Certified dimension drawings available on request

UNISHELL

SIZES

19DH

42,44,46 ’

50,51,53,

55,57

61,63,65

71,72;73

76.77,78

‘Length shown is chiller with nozzle on drive end only For length with nozzles at both ends, add 6-1/4 in (159 mm)

II.

Length*

14-3-3/4 14-3-3/4 14-3-3/4'

14-3-3/4' 14-3-3/4'

A

4362 4352

"4362

4352 4352

SERVICE CLEARANCE FOR MOTORS (ft-in.)

DESIGN

CENTER

VOLTAGES

208,230,

460,575

2400 & 4160

Service access should be provided per ANSI Standard B9.1, NFPA 70 (NEC) and local safety codes Clear space adequate for inspec tion, servicing and rigging of all major components of the chiller is required Selected component removal spaces, with no allowance for access or rigging are shown in phantom

Unishell

4i2 thru 65 50 thru 78

50 thru 78 6lThru'78

SIZE

Cornpr I Motor

i 2 thru 38 I AA thru AE 43 thru 68 72 thru 98

43 thru ës 72 thru 98

DIMENSIONS (ft-in.) (mm)

Width

B

3- 7-1/4 3- 7-1/4 4- 5-1/2 ■

4-11-1/4 ' 4-1 i-1/4'

.........

CB thru CL CD thru CQ CA thru CL ' - , „

1099 1099

'Ts'sé''

1505

AE

6- 4-3/4

6-10-1/2

8- Ò-Ì/2

8- 9-1/2 8- 9-1/2'

CLEARANCE

_

.....................

(in.)

1-1

1-3-1/4 387

B c5 thTë'ë^2-°;^

Height

330

Cooler Passes ^ Condenser Passes

..

1

6 8 8

10 8 8

MACHINE CONTACT SURFACES WITH

OPTIONAL SOLEPLATES

UNISHELL

SIZE* 19DH

42-57

61-65

71-78

*See machine informative plate

r^Al i 3-10 3-8

; 914 ^ 3-11

: 1194 i 4- 7 5-1

Ì1397 1549

DIMENSIONS (ft-in.) (mm)

B

1118

4-5 0-5

1346

NOZZLE SIZE (in.)

4 ■ ■

2 ' 3

4

—

6 6 6 6 6 io

8 6

8

D

C

0-4 0-4

102;

102

0-3'

127 76 38 152!

0-3 0-1 0-5 0-2

0-5 127 76 25

1 2" "'3'

6

—

8

—

6 10 8

Ì2 10 '8'

E

38

0-4 0-2-1/2 102!

0-1-1/2

0-1-1/2 0-6'

127

F

4 6 8" “6"

0-1-1/2

—

4

6

G 64 38 50

38

19EB

{225 mm)

Certified dimension drawings available on request

COMPR

SIZE

51-89 85,87

*IVIachine length including nozzles on one end Add 8 in (203 mm) if

nozzles are on both ends

fWith high-voltage(2400-4160 v)terminal box, add 1 ft-2 in (356 mm)

to dimension A if any nozzles are on suction end (shown) Add 6 in

UNISHELL

SIZE

19EB

71,72 ^ 14-1 4293 73,75 76,77 14-1/2 4305 6-8

81,82,83 14-1 4293

85,87

89 14-0

81,82,83

89

Length

A*t

14-1

14-1-1/4 :

14-1

14-1-1/4 :

14-0 4267

4293

4299 8- 2-1/2 4267 8- 4-3/4

4293 4299

DliyiENSIONS (

Width

B

6- 1-1/2 6- 5-1/2

7-10-3/4

7-10-3/4 8- 2-1/2 8- 4-3/4

1867 1969

2032

2407 2502

2559 2407 9-3

2502 2559

MACHINE CONTACT SURFACES WITH OPTIONAL SOLEPLATES

ft-in.J (mm)

Height

ct

8-0

2438

8-4

2540

8-6

2591

9-0

2743

9-3

2819

9-6

2896 2819 4- 2-1/2

9-6

2836

9-9

2972 4-10-1/2

FLOOR CONTACT SURFACE

SPACE FOR SERVICE AND ACCESS

;ZLE

D

3- 4-3/8 3- 6-3/8 1076 10 8 8

3-10-3/8

4- 2-1/2 4- 6-5/8

4-10-1/2

4- 6-5/8

(152 mm) only, if suction-end water boxes are blank

^Subtract 1 ft-1 in {330 mm) from height on high-voltage (2400-

4160 v) machines

UNISHELL

SIZE* 71,72

73,75 76,77 3- 4

81,82,83

85,87

89

*See machine informative plate

1026

1178

1283 1387 1486

1283 1387 16 12 10 1486

2-10

3- 0

3-8-1/8 4-0-1/4 1226 4-4-1/8

C("lwier

10

12

14 16 12 10 8 16 16

Ì4

16 12

DIMENSIONS (ft-in.) (mm)

A

864 3-10 914

1016

1121 1324 5-3-7/8

N02

’asse

2

8 8 8

10

12 8 16

12 10 To

12

4- 0 4- 4 i 1321

4-7-7Z8

5- 0

3

6

SIZE

(in,:)

Cor

s

4

6 6 12 10 6 12 10 8 8 6

6 8 16 12 10 10 8

B

dense r Pas 3ses

"^8

10

16

“T6

16 12 12 12

: 1168 : 1219

1413 1524 0-5-7/8 149 1622

8 8

12

10 10

12

10 10

12

lo^^

C

^ 0-6

0-6 0-6

0-5-7/8 143 0-5-7/8 149

4

12 10

152

6 8

Service access should be provided per ANSI Standard B9 1, NFPA 70 (NEC) and local safety codes. Clear space adequate for inspection, servicing and rigging of all major components of the chiller is required Selected component removal spaces, with no allowance for access or rigging are shown in phantom

39

Dimensions (cont)

—

-----

5

-A OR A'

19FA

SPACE REQUIRED FOR TUBE REMOVAL, EITHER END

SPACE REQUIRED FOR FLOAT

BOX MAINTENANCE

SPACE REQUIRED FOR REMOVAL OF STATOR AND ROTOR

Certified dimension drawings ava

COMPR

SIZE

BASE

SIZE

COOLER

Short Long

10,11,12 40,41,42

421

thru

469

421 thru 569

531

th ru 569

14,15,16 44,45,46

18,19

20,21,22

24,25,26 54,55,56

27,28,29 57,58,59

SIZE

48,49

50,51,52

DIMENSIONS (ft-in.) (mm)

CONDENSER

SIZE

10,11,12

14,15,16

10,11,12

14,15,16

18,19 (4382)

14,15,16

18,19

14-4-1/2

20,21,22

18,19

20,21,22

24,25,26

20,21,22 14-8-3/4

24,25,26 (4480) 27,28,29

24,25,26 27,28,29

LENGTH*

A

A'

18-11-1/4

(5772)

19- 0-3/4

(5810)

19- 1-1/2

(5829)

19- 6-1/2

(5956)

WIDTH

B

8-6

(2591)

10-0

(3048)

HEIGHT

C D D'

7-4-1/2 7-6-1/4

7-2-3/4

8-1-1/4

8-1 1

9-8-1/4 9-9-3/4

10- 3 10- 5

11-0

11- 2

7- 7 7- 9

7- 7

7- 9

9- 3

2248 2292

2203 2311 2362

2311 2362 2470

2718 2819 2953

2991 3124 3175

3353 3404

MACHINE CONTACT SURFACE

SPACE FOR

Tubes

Cooler *

12-3

(3734) (5207)

17-1

Cond

E

12-3

(3734) i (305)

Econ

1-0

‘Length including nozzles on both ends Dimensions A' and D' apply to machines with long coolers (Sizes 40 thru 59)

40

NOZZLE SIZES

NOZZLE SIZES (in )*

COOLER CONDENSER

SIZE SIZE

10,11,12

40,41,42 14,15,16

44,45,46

18,19

48,49

20,21,22

50,51,52

24^25,26~ 54,55,56

27,28,29 57,58,59

*5- and 6-in nozzles are Schedule 40 8-, 10-, and 20-in nozzles are

Schedule 20 12-in nozzles are 250W, 31 2W, or 375W 14-, 16-, and

18-in nozzles are 312Wor 375W

10,11,12

14,15,16 10

18,19 12

20,21,22

24,25,26

27,28,29 20 14 12

Cooler Passes Passes

1

2

10 6

8 6

10 8 14 10

16

181012

4 1

3

5 5 10 8 6 5

6 12

10

10 10

10 20

Condenser

2 3 4

161812

12

14

8 6

10108

12

8

10

MACHINE CONTACT SURFACES

6

8

BASE

SIZE

]

1 12-11

3937

1 13-2-3/4

4032

DIMENSIONS (ft-in ) (mm)i

1 1 8-6

1 2591 : 203 Î 1 10-0

1 3048 i 305 j 2438 1 152 Ï 1

^”'1 T M "1

0-8 1

1981 j

1 1-0 1

8-0 I

N i P 1

. 0^ j

102 i 0-6 >

3734. 1

12-2-3/4 1

12-3 i

Q

^ -_o~~

305

1-0

305

SERVICE CLEARANCE FOR MOTORS (ft-in.)

COMPR MOTOR

SIZE

421 CB-CN 1-9 thru 469

531 thru 569

Service access should be provided per ANSI Standard B9 1, NFPA 70 (NEC) and local safety codes Clear space adequate for inspection, servicing and rigging of all major components of the chiller is required Selected com ponent removal spaces, with no allowance for access or rigging are shown in phantom

SIZE

DB-DH 1-11-1/4 DK-DM

DF-DH 1-11-1/4

DK-DP

EA-ED

SERVICE SPACE REQ'D (ft-in

G diam H length

2- 7-1/4

3- 7-1/2

3-10-1/4

1-11-1/4

2- 2-3/4

533

591 591

879

3-2

794 9S5

n05

96S

110S

'175

41

Dimensions (cont)

19CB

ENTRANCE SPACE FOR HEAT EXCHANGER PACKAGE (COOLER, CONDENSER a ECONOMIZER)

<E_ COMPRESSOR

Certified dimension drawings available on request

HEAT

EXCHANGER

COMBINATION

(cooler & condenser)

77,78,87,88

HEAT

EXCHANGER

(cooler & condenser) J

77,78,87,88

Service access should be provided per ANSI Standard 89 1, NFPA 70 (NEC) and local safety codes Clear space adequate for inspection, servicing and rigging of all major components of the chiller is required Selected component removal spaces, with no allowance for access or rigging are shown in phantom

Length

A

18-0-7/8 114-4-5/8 1 9-10 16-0-5/8

5509' "p TiSSS • I 2997 | 4893

16-11

■ 5Î66 " '

DIMENSIONS

(ft-in ) (mm)

Width I Height

B 1 C

K L 1 M N !iP Q

0-6-3/4

.......

iW 2943

9-7-7Z8

Cooler

Passes

2

12

CONTACT SURFACES (ft-in.) (mm)

1 1-3 2-11-3/8 1 6-8

■ 1 381

NOZZLE

SIZES (in.)

4

10

Condenser

Passes

_2_T3__

14 110

899 ; 2032 i 152

-REFERENCE LINE SPACE FOR TUBE REMOVAL

EITHER END)

SPACE FOR REMOVAL OF MOTOR STATOR AND ROTOR

MACHINE CONTACT SURFACES

MINIMUM

SERVICE

CLEARANCE

(ft-in.) (mm)

Tubes E

Cooler

15-3

4648 Î4140 12794 i 27.43 1 3145

0-6

Motor

Cond

13-7

9-2

I

R

I 1-7-1/2

: 495

j____________1

F

MINIMUM

ENTRANCE

(ft-in.) (mmj

Width

G

9-0

REQ.

Height

H

10-4

s

5-10

1778

42

Electrical data (all models)

CONTROL TRANSFORMER REQUIREMENTS

MODEL

Standard Met

Control Circuit

Inrush va 1800

Sealed va

Purge System

Inrush va Sealed va

Oil Heater

Inrush va Sealed va

‘Values shown are for electronic control circuit Values for pneu

matic control circuit are Inrush va, 350, Sealed va, 250

NOTE Oil heater must be on separate circuit providing continuous service

19DH

550 550

3014

528

1000 1500

—

19EB J 19FA

^ANsTc89 1/NEMA Slf

1800 390*

— — — —

270*

1000

—

1000

19CB

511

133

44

27

750

Compressor motor controllers

Compressor motors as well as controls and accessories require the use of starting equipment systems specifically

designed for 19 Series chillers. Refer to Application Data,

Starting Equipment publications or consult Carrier regard ing design information for selection of controllers.

Capacitors

Power factor considerations may indicate use of capaci tors Properly sized capacitors improve power factors as illustrated in the Typical Power Factors curve

However, the P.F. of Carrier are so high that correc

tion is usually not necessary.

TYPICAL POWER FACTORS

I 00

0 95

q;

o

0 90

o <

ce

LU

0.85

o

Q.

< 0 80 o

Q.

>-

0.75

070

25 50 75 100

PERCENT OF RATED MOTOR Kw

ITEM

OIL PUMP

19DH

19EB

19FA

19CB

PURGE PUMP

19DH^

PUMPOUT

COMPRESSOR

19EB

19FA

19CB

DESIGN

CENTER LOAD

HP

VOLTAGE AMPS AMPS

220

SUPPLY

VOLTAGE

3-Phase, 60-Hz

200-240 1 6

1/2 430 380-480 9

575

220

1 430

575 550-600 1 28 9 62

550-600 6

200-240 380-480

220 200-240

1-1/2 430

575

—

1/2

—

1/6

2 230

208

460 208

2 230

460

—

380-480 2 6 133 550-600 2 1 107

208-220 2 2 440-480

550 0.9

1-Phase, 60-Hz

115 1 44

3-Ph, 60-Hz

—

--

220/240 v

Data available on request

ELECTRICAL DATA

FULL LOCKED

ROTOR

11 5

5 62 4 55

3 52 1 77

52

1 1

27 8

134

28 2

—

-

8 8 48 5

7 6

3.8

43 0 22 5

88 48 5

7 6

3.8 22.5

43 0

NOTES:

Listed motor voltages are design voltages Motors are suitable for use with supply voltages as noted, and will operate satis factorily at 10% below the minimum and at 10% above the

maximum supply voltage

200 v — for use on 200- to 208-v systems

230 V — for use on 220- to 240-v systems 380 V — for use on 360- to 400-v systems 460 V — for use on 440- to 480-v systems

575 V — for use on 550- to 600-v systems

2400 V — for use on 2300- to 2500-v systems 41 60 V — for use on 4000- to 4300-v systems 6900 V — for use on 6600- to 7200-v systems

To establish electrical data for your selected voltage, if other

than listed voltage, use the following formulas

FLA

OLTA = listed OLTA x

LRA

EXAMPLE Find the full load amperage for a motor listed at 1 12 amps per kw input and 550 volts

LEGEND: FLA — Full Load Amps per kw input

LRA — Locked Rotor Amps OLTA — Overload Trip Amps (= FLA x

listed FLA x

listed LRA

FLA = 112 X-— = 1 17

listed voltage

selected voltage

listed voltage

selected voltage selected voltage

listed voltage

575

550

1 08)

43

Controls

SAFETY AND CONTROL COMPONENT FEATURES

FEATURE SAFETY CUTOUTS:

Bearing High Temperature Motor High Temperature

Gas Discharge High Temperature —

Refrigerant High Pressure (Condenser) Refrigerant Low Pressure (Cooler) Refrigerant Low Temperature (Cooler)

Oil Pump Motor Overload

Lube Oil Low Pressure Impeller Displacement Limit

Cooler and Condenser Water Flow Switches

INTERLOCKS:

Unloaded (Vanes Closed) Start Pre-Lube and Post-Lube (via Program Timer) Starting Sequence (via Program Timer) Low Chilled Water Temp/Recycle Sequence (via Program Timer) Oil Cooler Water Flow (Solenoid) Machine Manual Reset after Safety Cutout

CAPACITY CONTROL:

Guide Vane Actuator Solid State Leaving Chilled Water Control Motor Current (demand) Limit — Adjustable 40-100% Manual Leaving Chilled Water Reset

OTHERS:

Elapsed Time Indicator Start Counter Manual (Local) Start Auto. (Remote) Start Pneumatic Leaving Chilled Water Control Pneumatic LCW Control Transducer Safety Indicator panel

Lead-Lag Panel

Mounted Oil Pump Starter

^Factory supplied and installed

/ Required — Field- and/or Factory-Option Supplied

#Optional

— Not applicable to this unit

APPLIES

19DH

.

* * * ♦

* * * *

—

* — *

*

—

/ y

* * * * *

* * *

* * * * * * *

* * * * *

* #

—

# #

#

*

19EB 19FA 19CB

* * *

* *

*

*•

*

* * * * * * * *

*

* *

*

# # #

—

n

# # tl # *

TO THE

—

\/

*

\/

*

* * *

*

# #

— —

# n /

—

*

y

*

Y

*

* *

*

—

y

Control system

The safety controls of each Carrier centrifugal chiller are factory wired and mounted to ensure machine protection against condenser high pressure, cooler low temperature, bearing or motor overtemperature, motor overload and oil low pressure. Other safety controls ensure no-load starting of compressor and prevent compressor restart until a safe, preset interval has elapsed.

The capacity control system is a fully automatic, modular, solid state system for precise control of machine capacity at all loads. When it is desirable to use pneumatic controls to interface with a complete pneumatic system, control interface devices or complete pneumatic control systems are available.

The operating capacity of each chiller is matched directly

with the need for cooling. As cooling needs change, guide vanes in the refrigerant vapor stream entering the com pressor change position to maintain the selected chilled water (brine) temperature.

The changes in vane position are initiated by a solid state

thermistor in the chilled water line. This probe constantly

relays any variations in water temperature to a solid state capacity control module in the chiller control center. The control module, in turn, amplifies and modulates the probe signals. The amplified signals cause a guide vane actuator motor to adjust the guide vane position as required.

If chilled water temperature drops below the selected design temperature, the actuator moves the guide vanes towards a closed position; the rate of refrigerant evap oration slows and chiller capacity decreases. A rise in chilled water temperature above the set point causes the

actuator to move the vanes towards a more open position. Refrigerant begins to evaporate at a more rapid rate and chiller capacity increases.

Built-in safeguards in the capacity control system prevent motor overload. When motor full load current is reached, the guide vanes stop opening immediately If motor current continues to increase, the guide vanes begin

to close until motor current is reduced. To minimize start up current demand, capacity control interlocks keep the guide vanes in a closed (minimum capacity) position until the compressor motor reaches run condition.

44

Control sequence

Before the chiller can start, the condenser and chilled water pumps must be operating. Field-supplied pilot relays for pumps and fan are normally applied as shown in the Typical

Control Wiring Schematic.

Closing the chiller ON-STOP switch energizes the tem

perature control circuits in the compressor safety system.

Once these temperature sensing circuits have been ener

gized, the circuits containing pressure sensing devices can

be energized. If condenser pressure and cooler refrigerant pressure/temperature are satisfactory, the machine control circuit can then be energized by pressing chiller START button. A program timer now begins a series of 4 timed steps (PT-1 thru -4) to ensure the proper sequencing of the oil pump and compressor start.

When the compressor motor reaches RUN condition, a normally open contact closes to energize holding relay K3. This locks in control circuit power to oil pump and water pump motors whenever the chiller compressor is operating. Energizing the K2 and K3 relays also permits the capacity control circuit to position the compressor guide vanes as required to maintain the selected chilled water temperature.

To guard against stress or damage to the compressor

motor, the program timer keeps the chiller control circuit de-energized for approximately 15 minutes after a com pressor stop.

The chiller is stopped by pressing the ON-STOP switch.

The auxiliary water pumps and fan motor are stopped by pressing the field-supplied STOP button.

Typical control components

Condenser high-pressure cutout (manual reset) —

Shuts down compressor if condenser pressure rises above cutout set point.

Bearing high-temperature cutout — Prevents damage

to motor and compressor bearings from excessive tem perature. Keeps compressor from starting or shuts com pressor off if bearing temperature reaches set point. Chiller ON-STOP button must be opened and reclosed to reset this safety circuit.

Motor winding high-temperature cutout — Prevents

compressor start or shuts compressor off if motor winding temperature reaches set point. Requires opening and reclosing chiller ON-STOP button to reset.

Cooler low-refrigerant cutout — Switch trips when

refrigerant charge is low, shutting off compressor. Switch protects the cooler tubes from freeze-up if water flow drops off or chilled water thermostat is set too low. Switch re quires manual reset.

Oil low-pressure cutout — Prevents compressor start

until oil pressure is adequate for good bearing lubrication. Automatically stops compressor if oil pressure falls to set point. Coastdown lubrication is provided in the compressor.

Chilled water low-temperature recycle switch — Stops

compressor when chilled water temperature drops to a point indicating minimum refrigeration load. Allows chiller to recycle automatically when water temperature rises to a point that indicates need for further cooling. Also provides protection against tube freeze-up.

Vane closed switch — Prevents compressor start unless

compressor inlet guide vanes are in closed position. Ensures no-load starting.

Capacity control module (solid state) — Transmits

signals from temperature sensing element in the chilled water line to compressor guide vane actuator. Provides precise control of vane position, and hence, machine

capacity at all loads. Module contains a motor load control that overrides the chilled water temperature control and closes the guide vanes to prevent motor overload.

Guide vane actuator — Motor opens and closes com

pressor guide vanes in response to signals from capacity control module.

Program timer — Sequences the start of oil pump and

compressor motor to ensure adequate lubrication before compressor starts during operation and as the compressor coasts down at shutdown. The program timer also provides a 15-minute delay between any compressor stop and subsequent start-up.

45

Typical control schematic

LEGEND

C — Common CMS — Compressor Motor Starter CT — Current Transformer HPS — High-Pressure Cutout Switch HTS — High-Temperature Cutout Switch K — Relay LTS — Low-Temperature Cutout Switch NC — Normally Closed

NO — Normally Open OL — Overload RD — Signal Resistor

o Component Terminal

______

Factory Wiring

—

------

Field Wiring

A Junction

46

Guide specifications

Furnish and install — Hermetic centrifugal liquid chilling

package(s) suitable for chilling water as shown when sup plied with condenser water and electric power as shown on the plans.

Selection — Each unit shall allow for water side fouling

factor of .0005 in the cooler tubes and .0005 in the con denser tubes. Cooler and condenser water pressure drops shall not exceed those shown on plans. The kw power draw shall not exceed that shown on plans. Machine shall be rated in conformance with the most recent ARI Standard

550. Each unit shall conform to ANSI/ASHRAE 15-1978 Safety Codes.

Water chiller shall be complete with compressor and

motor, evaporator, condenser, lubrication system, capacity control and controller, motor starter, instrument and control panel mounted and factory wired on the machine, purge system and other items as herein specified.

For capacities thru 1500 tons, the machine shall be shipped completely factory assembled with all refrigerant piping and control wiring factory installed. Models utilizing R-12 and R-500 shall be shipped pre-charged. Machines operating on R-11 and R-114 shall be charged at thejob site.

Compressor shall be of high performance single- or multi

stage hermetic design. Multi-stage designs shall include interstage flash economizer for maximum cycle efficiency and lowest operating cost. A thrust bearing of the Kingsbury type with forced-feed lubrication shall axially position the shaft under unidirectional thrust loading. To prevent potential machine hazards, the impeller shall be designed so that the thrust loading is positive and unidirectional under all operating conditions.

Friction losses shall be maintained at a minimum by an impeller design utilizing precision shaft placement. Impeller shall be of an in-line design for even unloading and ease of maintenance. Multi-stage compressors shall have dia phragms between stages. Impellers shall be overspeed tested a minimum of 20% above operating conditions.

Babbitt-lined journal bearings to be self-aligning type, pressure lubricated. Compressor transmission gears must be arranged for visual inspection without disassembly or

removal of compressor casing or impeller. The gears are to

be of the double-helical design, symmetrical and center

supported by a spherically seated, self-aligning bearing.

Compressor shall be capable of operation without surge,

cavitation or undue vibration from full load to 10% load without hot gas bypass when supplied with design entering water quantity.

Force-feed lubrication system with a hermetic motor

driven oil pump shall be furnished as part of the water chiller. System shall be complete with oil pump, oil cooler, pressure regulator, oil filters, thermostatically controlled

oil heater and necessary motor controls. Oil pumps shall

be energized prior to chiller motor energization. Oil pump

starter shall be factory supplied and mounted on the chiller and factory wired with only field power leads required. (On 19DH and 19EB units only.) Should a substitute oil pump

[starter be offered that is not factory mounted, all required

extra field mounting and wiring is to be done at no cost to the owner.

Oil pump controls are to have delayed action so that oil

pressure is provided during machine coastdown. Oil pump

is to be provided with a separate 460-volt, 3-phase, 60-Hertz power source. Oil pump shall have momentary switches to permit only manual operation of pump when compressor is not operating. When compressor is not operating, auto matic operation modes are unacceptable since they are con ducive to refrigerant absorption.

Motors shall be of the single-speed, non-reversing squirrel-

cage induction type, and shall be suitable for voltage as shown on plans. The design speed shall be 3550 rpm. The motor shall be suitable for operation in a refrigerant atmosphere. Compressor motor to be cooled by atomized subcooled refrigerant in contact with the motor windings.

Water jacket designs are not acceptable, as they produce substantial temperature gradients throughout the motor windings. Motor stator shall be arranged for service or removal without complete compressor disassembly or

breaking of main refrigerant piping connections. Full-load

operation of the motor shall not exceed nameplate rating.

Motor shall be built for connection to Star Delta type

reduced voltage starter.

Evaporator and condenser shall be fabricated with

integrally-finned copper tubing rolled into the tube sheets

in both the evaporator and condenser as well as expanded

into the tube support sheets in the evaporator. Tubing shall

be finned except in the area adjacent to and in contact with

the tube and tube support sheets. Tube support sheets shall

be spaced at approximately 2-1/2 ft. intervals to maintain

proper tube spacing and to minimize tube vibration

and wear.

Tubes shall be removable from either end of the heat exchanger without affecting strength and durability of the tube sheet and without causing leakage at adjacent tubes.

Water boxes are to be machine welded to the heat exchanger tube sheet and to be equipped with tapped drain and vent connections.

Machines using R-12 and R-500 shall be equipped with a thermal economizer built into the condenser for increased cycle efficiency.

Construction and materials for the heat exchangers shall conform to ANSI B9.1 Safety Code for mechanical refrig eration (which in turn requires conformance to the ASME

Code for Unfired Pressure Vessels where applicable).

Cooling tower bypass valve and associated piping are not

required for proper operation of the specified chiller at design load. If a substitute chiller is supplied, it must be capable of operating with condenser water temperatures as low as 55 F without the need of cooling tower bypass. Otherwise, a cooling tower bypass valve, bypass piping and all associated controls must be supplied and installed by the contractor at no cost to the owner. Working draw ings pertaining to cooling tower bypass shall be prepared by the contractor and submitted for approval.

Structural steel shipping skids shall be furnished with

each machine to facilitate transfer of machine from trans porting conveyance to job site and to provide most effective lifetime support for the machine. Substitute machines with out these supports shall be properly supported by the contractor at no cost to the owner. Vibration isolation shall be provided in accordance with specifier’s

recommendations.

47

Guide specifications (cont)

Controls shall be solid state, fully automatic and “fail-safe.”

Safety shutdown shall be provided for low refrigerant temperature or pressure, bearing high temperature, high refrigerant pressure, motor temperature and motor over load. Each of the above controls shall have manual reset flags. Recycle shutdown shall be provided for low oil pressure and low chilled water temperature. These con trols shall be automatic reset. Motor shall be protected against drawing more than rated full load amperes. Motordriven elapsed running time meter shall be factory in stalled on each machine. Solid state chilled water controller shall be located within control panel and capable of throttling range setting of 1.5 F. Pneumatic control with

automatic reset, which meets the 1.5 F throttling range requirements, will be acceptable. If such pneumatic con trol is used, the refrigeration machine manufacturer shall furnish the chilled water controller and shall be responsible for all required pneumatic work and any additional elec trical work not shown on plans.

Each safety switch shall be wired across its own set of

terminals for easy isolation.

Demand limiter — Demand Limiter Device shall be pro

vided within the standard control panel so that maximum current may be manually set to any fraction between 40% and 100% of full load amperes. Limiters with 4-point settings in the control panel are not acceptable.

Chiller shall be equipped with instrument gage and

control panel indicating condenser pressure, evaporator pressure and oil pressure. Panel shall contain switches per mitting manual or automatic operation of oil pump and purge pump. In addition to gages, pilot lights and switches, the panel shall contain evaporator low temperature or pres sure cutout, condenser high pressure cutout, and differ ential oil pressure controller interlocked so that compressor will only operate if adequate oil pressure is maintained to

bearings. High pressure cutout and evaporator low tem perature cutout shall be arranged in a lockout circuit provided with reset buttons. Panel shall also operate the capacity control mechanism to limit the load on compressor motor to a safe maximum.

Purge system supplementing the instrument and control

panel shall be a self-contained purge system provided with any necessary devices for evacuating air and water vapor from the system and for condensing, separating and returning refrigerant to the system. Compression type purges are not acceptable as they are susceptible to leaks. If city or other water piping is required for purge operation, chiller manufacturer shall include same in his bid.

Refrigerant — If low-pressure (R-11) refrigerant is used,

machine shall be furnished with a factory-installed, wired and piped purge unit suitable for removing noncondensible gases and water which may enter the machine and for reclaiming refrigerant. If high-pressure (R-12 or R-500) refrigerant is used, machine shall come factory equipped

with a refrigerant storage vessel and pumpout compressor (for multiple external to the cooler and condenser and of sufficient capacity that the entire charge may be transferred to the

_____

may be used). Storage vessel shall be

vessel with 20% excess volume remaining in the vessel and a pumpout compressor factory installed (for multiple machine installations one pumpout may be used).

Refrigerant flow control shall be by means of a positive

metering device either float or pressure operated. The chiller shall be capable of operating with entering con

densing water temperatures of 55 F. If a tower water bypass valve is required to maintain a condensing pressure

head with 55 F entering water, the chiller manufacturer

shall include same in his bid.

Chiller manufacturer shall furnish magnetic motor

starters, Star-Delta closed transition type, with suitable 3-leg overloads. Starters shall be furnished with NEMA 1 enclosures for installation by the electrical contractor. The disconnect, protection devices and control voltage shall be provided by others.

Electrical — Electrical contractor shall furnish and install

all electrical lines, disconnect switches, circuit breakers, auxiliary starters, and shall install the main starter and the control wiring according to the diagram furnished by the centrifugal refrigerating machine manufacturer.

Piping — Piping contractor shall make water connections

to the oil cooler, and such other water supply, drain and vent connections as are required by the drawings and local

codes.

Initial refrigerant and oil charge shall be provided. Water chiller unit performance data shall be submitted

for approval.

Nameplates — Chiller shall bear firmly attached metal

plates which state name of manufacturer, chiller unit model number, compressor type and refrigerant used.

Operating and maintenance instructions prepared by

chiller manufacturer shall be included in Operating and Maintenance Instructions herein before specified.

Start-up — Chillers shall be leak tested, refrigerant

pressure tested, evacuated, dehydrated, charged, started, controls calibrated, and operating instructions given to owner’s personnel by a factory trained service mechanic employed by the chiller manufacturer. Start-up super vision will not be acceptable.

The drawings are based on a Carrier machine. If another

manufacturer is substituted, that manufacturer shall be responsible for all electrical, mechanical, structural or architectural changes.

Equivalent material which qualifies to meet the above

specification will be acceptable. Manufacturers other than Carrier, shall submit a 1/2-in. scale plan and section drawing showing proper fit and clearance for tube pull, motor or compressor removal, other maintenance clearances re quired and rigging clearance needed within the mechanical room.

Guarantee — All equipment furnished under this section

of the specifications shall be guaranteed against defective workmanship and material for a period of one (1) year from date of beneficial use to the owner or 18 months from time of delivery whichever occurs first.

48

Build your system around

matched Carrier components

ABSORPTION

REClPROCATiNG

HERMET5C CENTRiFUGAL

OPEN-DRIVE CENTRiFUGAL

COILS

CENTRAL STATION

FANS

VARIABLE

VOLUME

PLUS — many other speciedized product

lines. . .both packaged units and system

PACKAGED FAN COILS

SMALL FAN COILS

components. CaU your Carrier representative for information.

For systems that involve centrifugal and absorption machinery, process cooling, and related air system equipment, contact your Carrier Machinery & Systems Division offices listed below:

Albany, New York Albuquerque, New Mexico Atlanta, Georgia

Baltimore, Maryland Birmingham, Alabama Boston, Massachusetts Buffalo, New York

Charlotte, North Carolina Chicago, Illinois Cincinnati, Ohio Cleveland, Ohio Clifton, New Jersey Columbia, South Carolina Columbus, Ohio

Dallas, Texas Denver, Colorado Detroit, Michigan

Ft, Worth, Texas Grand Rapids, Michigan

Greensboro, North Carolina Greenville, South Carolina

Ffonolulu, Flawaii Houston, Texas

Indianapolis, Indiana Jackson, Mississippi

Jacksonville, Florida Kansas City, Missouri

Knoxville, Tennessee

(518) 456-6411 (505) 344-2345 (404) 351-5520

(301) 252-9310 (205) 879-8654 (617) 890-5500 (716) 668-6574

(704) 523-5211 (312) 986-4200 (513) 984-6900 (216) 228-4500 (201) 473-5850 (803) 254-1852 (614) 457-1551

(214) 368-3631 (303) 922-3648 (313) 522-5000

(817) 335-9622

(616) 942-0670 (919) 294-3914 (803) 288-0471

(808) 839-7431

,(713) 869-3511

(317) 299-5076 (601) 354-8787

(904) 396-6965 (816) 753-3945

(615) 690-3531

Little Rock, Arkansas Los Angeles, California Louisville, Kentucky

Madison, Wisconsin Memphis, Tennessee Miami, Florida Milwaukee, Wisconsin Minneapolis, Minnesota Mobile, Alabama

Nashville, Tennessee New Orleans, Louisiana New York, New York Norfolk, Virginia

Oklahoma City, Oklahoma Omaha, Nebraska

Philadelphia, Pennsylvania Phoenix, Arizona Pittsburgh, Pennsylvania Portland, Oregon

Raleigh, North Carolina Richmond, Virginia Roanoke, Virginia Rochester, New York

St Louis, Missouri Salt Lake City, Utah San Antonio, Texas San Diego, California San Francisco, California San Jose, California Seattle, Washington Syracuse, New York

Tampa, Florida Tulsa, Oklahoma

Wallingford, Connecticut Washington, D C.

(501) 664-9849 (213) 965-2441 (502) 491-5151

(608) 231-3477 (901) 345-2300 (305) 621-4802 (414) 781-1470 (612) 866-4091 (205) 666-5774

(615) 244-1100 (504) 733-3780 (212) 644-3330 (804) 499-4195

(405) 947-8791 (402) 330-5252

(215) 265-8600 (602) 277-4407 (412) 279-8777 (503) 641-5540

(919) 821-5520 (804) 282-5431

(703) 366-2471

(716) 424-2360

(314) 878-4661 (801) 268-9200

(512) 342-4106

(714) 276-9410 (415) 658-6717

(408) 247-1077

(206) 767-6340 (315) 451-2660

(813) 623-1711 (918) 664-4233

(203) 265-2316 (703) 573-4724

In Canada contact: Calgary, Alberta

Dartmouth, Nova Scotia Edmonton, Alberta Hamilton, Ontario London, Ontario

Ottawa, Ontario Quebec City, Quebec

(403) 287-1723 (902) 463-1277 (403) 454-9602 (416) 529-6963

(519) 471-8410 (613) 225-6974 (418) 681-0073

Number One AirConditbning Maker

Division of Carrier Corporation

Carrier Parkway • Syra

Regina, Saskatchewan Rexdale, Ontario Sudbury, Ontario Vancouver, British Columbia Ville St. Laurent, Quebec

Windsor, Ontario Winnipeg, Manitoba

(306) 525-9944 (416) 245-1100 (705) 522-3421 (604) 731-5808 (514) 748-8731 (519) 966-3022 (204) 633-9647

Manufacturer reserves the right to discontinue, or change at any time, specifications or designs without notice and without incurring obligations.

Book

Tab

2 5a

Form 1 9-2P Supersedes 1 9-1 P

Printed in U S A

9-79

PC 211

Catalog No 521-907

Carrier 19 User Manual

Specifications and Main Features

Frequently Asked Questions

User Manual

The 19 Series: Built to save energy, save you money and get the job done right

Energy-saving, precision design: extends compressor motor life, saves on operating costs, increases electrical efficiency

Hermetic design

■ Gear driven compressors

Multi-pass water boxes

Refrigerant-cooled motor

Solid state capacity control

55 F (13 C) condenser water

In-line impeller design

Flash and thermal economizer

Thermal purge

Engineering excellence provides lower first costs and years of trouble-free service

Single unit construction

Factory-wired oil pump starter

Permanent shipping bases

Prepiped motor lubrication package

Storage tank

Factory start-up

Integral chilled-water sensor

Elapsed-time indicator

Full line centrifugal service centers assure optimal care of your unit.

Computer selection means “custom built” machinery — saves design time and lowers cost.

Convenience options offered for added energy-efficient, ‘tailor-made’ systems

Pneumatic capacity control

Safety indicator panel

Selective insulation

Isolation assembly

Remote control set point

Pumpout unit

Lead-lag control

Hot gas bypass

Additional energy-saving options

Chilled water self-reset control

The power monitor control

Chilled water reset-dual input

Adjustable stepped-rcset control

Stepped power demand limiter

19DH Selection data

100 Ton Selections (352 kW)

125 Ton Selections (440 kW)

175 Ton Selections (615 kW)

LEGEND

250 Ton Selections (879 kW)

300 Ton Selections (1055 kW)

19DH Selection data (cont)

350 Ton Selections (1231 kW) 400 Ton Selections (1407 kW)

19DH Selection data (cont)

19EB Selection data

450 Ton Selections (1583 kW)

500 Ton Selections (1759 kW)

600 Ton Selections (2110 kW)

700 Ton Selections

800 Ton Selections (2814 kW)

19EB Selection data

850 Ton Selections (2989 kW)

1000 Ton Selections (3517 kW)

900 Ton Selections (3165 kW)

1100 Ton Selections (3869

LEGEND

19EB Selection data (cont)

19FA Selection data

1100 Ton Selections (3869 kW)

1300 Ton Selections (4572 kW)

LEGEND

1400 Ton Selections (4924 kW)

1600 Ton Selections (5627 kW)

1500 Ton Selections (5276 kW)

LEGEND

19FA Selection data (cont)

19FA Selection data (cont)

LEGEND

2000 Ton Selections (7034 kW)

LEGEND

19CB Selection data (cont)

Typiceil piping and wiring

Nozzle arrangements