Trane Axiom VSHE042, Axiom VSVE024, Axiom VSVE042, Axiom VSHE050, Axiom VSVE050 Operating And Maintenance

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Installation, Operation, and Maintenance

Water Source Heat Pump

Axiom™ Variable Speed - VSH/VSV

24 to 60 MBtuh - 60 Hz

Model Numbers

Only qualified personnel should install and service the equipment.The installation, starting up, and servicing of heating, ventilating, and air-conditioning equipment can be hazardous and requires specific knowledge and training. Improperly installed, adjusted or altered equipment by an unqualified person could result in death or serious injury.When working on the equipment, observe all precautions in the literature and on the tags, stickers, and labels that are attached to the equipment.

January 2015

VSHE024 VSVE024 VSHE033 VSVE033 VSHE042 VSVE042 VSHE050 VSVE050 VSHE060 VSVE060

SAFETY WARNING

WSHP-SVX13C-EN

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Introduction

Read this manual thoroughly before operating or servicing this unit.

Warnings, Cautions, and Notices

Safety advisories appear throughout this manual as required.Your personal safety and the proper operation of this machine depend upon the strict observance of these precautions.

The three types of advisories are defined as follows:

WARNING

Proper Field Wiring and Grounding Required!

Failure to follow code could result in death or serious injury. All field wiring MUST be performed by qualified personnel. Improperly installed and grounded field wiring poses FIRE and ELECTROCUTION hazards.To avoid these hazards, you MUST follow requirements for field wiring installation and grounding as described in NEC and your local/state electrical codes.

WARNING

CAUTIONs

NOTICE

Indicates a potentially hazardous situation which, if not avoided, could result in death or serious injury.

Indicates a potentially hazardous situation which, if not avoided, could result in minor or moderate injury. It could also be used to alert against unsafe practices.

Indicates a situation that could result in equipment or property-damage only accidents.

Important Environmental Concerns

Scientific research has shown that certain man-made chemicals can affect the earth’s naturally occurring stratospheric ozone layer when released to the atmosphere. In particular, several of the identified chemicals that may affect the ozone layer are refrigerants that contain Chlorine, Fluorine and Carbon (CFCs) and those containing Hydrogen, Chlorine, Fluorine and Carbon (HCFCs). Not all refrigerants containing these compounds have the same potential impact to the environment.Trane advocates the responsible handling of all refrigerants-including industry replacements for CFCs such as HCFCs and HFCs.

Important Responsible Refrigerant Practices

Trane believes that responsible refrigerant practices are

important to the environment, our customers, and the air conditioning industry. All technicians who handle refrigerants must be certified. The Federal Clean Air Act (Section 608) sets forth the requirements for handling, reclaiming, recovering and recycling of certain refrigerants and the equipment that is used in these service procedures. In addition, some states or municipalities may have additional requirements that must also be adhered to for responsible management of refrigerants. Know the applicable laws and follow them.

WARNING

Personal Protective Equipment (PPE) Required!

Installing/servicing this unit could result in exposure to electrical, mechanical and chemical hazards.

• Before installing/servicing this unit, technicians MUST put on all PPE required for the work being undertaken (Examples; cut resistant gloves/sleeves, butyl gloves, safety glasses, hard hat/bump cap, fall protection, electrical PPE and arc flash clothing).

ALWAYS refer to appropriate Material Safety Data

Sheets (MSDS)/Safety Data Sheets (SDS) and OSHA guidelines for proper PPE.

• When working with or around hazardous chemicals,

ALWAYS refer to the appropriate MSDS/SDS and

OSHA/GHS (Global Harmonized System of Classification and Labelling of Chemicals) guidelines for information on allowable personal exposure levels, proper respiratory protection and handling instructions.

• If there is a risk of energized electrical contact, arc, or flash, technicians MUST put on all PPE in accordance with OSHA, NFPA 70E, or other country-specific requirements for arc flash protection, PRIOR to servicing the unit. NEVER PERFORM ANY SWITCHING, DISCONNECTING, OR VOLTAGE

TESTING WITHOUT PROPER ELECTRICAL PPE AND ARC FLASH CLOTHING. ENSURE ELECTRICAL

METERS AND EQUIPMENT ARE PROPERLY RATED FOR INTENDED VOLTAGE.

Failure to follow instructions could result in death or serious injury.

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This document and the information in it are the property of Trane, and may not be used or reproduced in whole or in

part without written permission.Trane reserves the right to revise this publication at any time, and to make changes to its content without obligation to notify any person of such revision or change.

Trademarks

All trademarks referenced in this document are the trademarks of their respective owners.

Revision History

WSHP-SVX13C-EN (03 January 2015)

• Added the option of a plenum fan allowing the unit to work at higher external static pressures (ESP)

• Added selection of new motor

• Added option of insulated water coil and suction line

• Condensate drain update

Introduction

WSHP-SVX13C-EN 3

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Table of Contents

Introduction ............................. 2

Warnings, Cautions, and Notices ........ 2

Important Environmental Concerns ..... 2

Important Responsible Refrigerant Practices 2

Table of Contents ........................ 4

Model Number Description - VSH/VSV ..... 6

General Information ..................... 7

Unit Inspection ...................... 7

Jobsite Inspection ................... 7

Jobsite Storage ..................... 7

Model Number Description ............ 7

Unit Description ..................... 7

Unit Nameplate ..................... 7

Compressor Nameplate ............... 8

Air-to- Refrigerant Coil ................ 8

Water-to-Refrigerant Coil .............. 8

Controls ............................ 8

System Input Devices and Functions .... 8

Pump Module (field installed accessory) . 8

Unit Dimensions ......................... 9

Clearance Dimensions .................. 9

Unit Fan Performance ................... 26

MERV Filter .......................... 34

General Data ........................... 36

Installation ............................. 39

General Installation Checks ........... 39

Supply-Air Ductwork ................ 39

Return-Air Ductwork ................. 40

Return Air Ducted Panel .............. 40

Ducted Filter Rack ................... 40

Sound Attenuation Pad .............. 41

Hanging the Horizontal Unit .......... 41

Condensate Drain Connection ......... 41

Supply/Return Pipe Connections ...... 41

Cleaning and Flushing the Water Loop . 42

Field Installed Power Wiring .......... 43

Main Unit Power Wiring ..............43

Control Power Transformer ...........43

Sensor Location .....................43

Installation of the Axiom model VS .....44

Electrical Data ...........................45

Variable-Speed WSHP Tracer™ UC400 Control-

......................................47

ler

I/O Definitions .......................47

UC400 Setpoints and Setup Parameters ..48

Sequence of Operation ...................49

Random Start Timer ...................49

Maintenance Timer ....................49

Setpoint Arbitration ....................49

Sensor Arbitration .....................49

Occupancy Determination ..............49

Occupied mode .....................49

Unoccupied mode ...................50

Occupied Standby mode ..............50

Occupied Bypass mode ...............50

Timed override operation .............50

Supply fan mode operation ...........50

Supply fan mode: Cycling .............50

Supply fan mode: ON ................50

Zone sensor fan switch ...............50

Unit Mode Arbitration ................51

Manual mode determination ..........51

Auto-Changeover ....................51

Isolation Valve Operation .............51

Isolation Valve “ON” Control ..........51

Entering water temperature (EWT) sampling 52

Isolation Valve “OFF” Control .........52

Reversing Valve Operation ............52

Cooling and Heating Operation ........52

Unoccupied Cooling and Heating Operation 52

Demand Limit Operation ..............52

Pre-Start Checklist .......................53

Start-Up ................................54

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Operating Pressures .................. 54

Water Pressure Drop .................. 58

Water Volume ...................... 58

Maintenance ........................... 59

Preventive Maintenance ............. 59

Condensate Trap ................... 59

Troubleshooting ........................ 60

General Unit Troubleshooting .......... 60

Compressor Drive Troubleshooting ..... 61

Pressure transducer/controller ......... 62

Control Wiring ......................... 63

Table of Contents

WSHP-SVX13C-EN 5

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Model Number Description - VSH/VSV

VSV E 042 3 2 **

123 4 567 8 9 1011

Digits 1-3 — Unit Configuration

VSH = Variable Speed Vertical VSV = Variable Speed Horizontal

Digit4—Development Sequence

E = R-410A Refrigerant

Digit 5-7 — Nominal Capacity

024 = 24 MBtuh 033 = 33 MBtuh 042 = 42 MBtuh 050 = 50 MBtuh 060 = 60 MBtuh

Digit 8 — Voltage (Volts/Hz/ Phase)

1 = 208/60/1 2 = 230/60/1 4 = 460/60/3

Digit 9 — Heat Exchanger

1 = Copper Water Coil 2 = Cupro-Nickel Water Coil 7 = Insulated Copper Water Coil and

Suction Lines

8 = Insulated Cupro-NickelWater Coil and

Suction Lines

Digit 10-11 — Current Design Sequence

Digit 12 — Control Type

F = UC400

Digit 13 — Freeze Protection

A = 20°F (low temperature/geothermal)

B = 35°F

Digit 14 — Sales Order Special

0 = None S = Sales Order Special

Digit 15 — Supply Air

Arrangement

B = Back Supply Air L = Left Supply Air R = Right Supply Air

T = Top Supply Air

Digit 16 — Return Air

Arrangement

L = Left Return Air R = Right Return Air

Digit 17 — Disconnect

0 = None

Digit 18 — Filter Type

1 = 1 inchThrowaway Filter 2 = 2 inchThrowaway Filter 4 = 2 inch MERV 8 5 = 2 inch MERV 13

Digit 19 — Motor Type

A = ECM B = Plenum Fan

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General Information

WARNING

Fiberglass Wool!

Product contains fiberglass wool. Disturbing the insulation in this product during installation, maintenance or repair will expose you to airborne particles of glass wool fibers and ceramic fibers known to the state of California to cause cancer through inhalation. Glass wool fibers may also cause respiratory, skin or eye irritation.

Unit Inspection

• Unpack all components of the kit.

• Check carefully for any shipping damage. If any damage is found it must be reported immediately and a claim made against the transportation company.

• Visually inspect the components for shipping damage as soon as possible after delivery, before it is stored. Concealed damage must be reported within 15 days.

• If concealed damage is discovered, stop unpacking the shipment.

• Do not remove damaged material from the receiving location.Take photos of the damage, if possible.The owner must provide reasonable evidence that the damage did not occur after delivery.

• Notify the carrier ’s terminal of damage immediately by phone and by mail. Request an immediate joint inspection of the damage by the carrier and the consignee.

• Do not attempt to repair any damaged parts until the parts are inspected by the carrier’s representative.

Jobsite Inspection

Always perform the following checks before

accepting a unit:

• Verify that the nameplate data matches the data on the sales order and bill of lading (including electrical data).

• Verify that the power supply complies with the unit nameplate specifications.

• Visually inspect the exterior of the unit, for signs of shipping damage. Do not sign the bill of lading accepting the unit(s) until inspection has been completed. Check for damage promptly after the unit(s) are unloaded. Once the bill of lading is signed at the jobsite, the unit(s) are now the property of the SOLDTO party and future freight claims MAY NOT be accepted by the freight company.

Jobsite Storage

WARNING

Microbial Growth!

Wet interior unit insulation can become an amplification

site for microbial growth (mold), which may cause odors and serious health related indoor air quality problems. If there is evidence of microbial growth (mold) on the interior insulation, remove or replace the insulation prior to operating the system. Failure to remove microbial growth could result in serious health problems.

This unit is intended for indoor use only.To protect the unit

from damage due to the elements, and to prevent possible IAQ contaminant sources from growing, the unit should be stored indoors. If indoor storage is not possible, the following provisions for outdoor storage must be met:

• Place the unit(s) on a dry surface or raise above the ground to assure adequate air circulation beneath the unit.

• Cover the unit(s) with a water proof tarp to protect them from the elements.

• Make provisions for continuous venting of the covered units to prevent moisture from standing on the unit(s) surfaces. Wet interior unit insulation can become an amplification site for microbial growth (mold) which has been determined to be a cause of odors and serious health related indoor air quality problems.

• Store units in the normal UP orientation to maintain oil in the compressor.

• Do not stack vertical units. Horizontal units may be stacked two high.

Model Number Description

All products are identified by a multiple-character model number that precisely identifies a particular type of unit. Its use will enable the owner/operator, installing contractors, and service engineers to define the operation, specific components, and other options for any specific unit.

When ordering replacement parts or requesting service,

be sure to refer to the specific model number and serial number printed on the unit nameplate.

Unit Description

Before shipment, each unit is leak tested, dehydrated, charged with refrigerant and run tested for proper control operation.

Unit Nameplate

The unit nameplate is located on the outside of the control

box access panel at the front of the unit. It includes the unit model number, serial number, electrical characteristics, refrigerant charge, and other pertinent unit data.

WSHP-SVX13C-EN 7

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General Information

Compressor Nameplate

The nameplate for the compressors are located on the

compressor shell.

Air-to- Refrigerant Coil

The air-to-refrigerant coil is aluminum fin, mechanically

bonded to the copper tubing.

Water-to-Refrigerant Coil

The water-to-refrigerant coil is a copper or cupro-nickel

(option) and steel tube (tube-within-a-tube) design, leak tested to assure there is no cross leakage between the water tube (copper/cupro-nickel) and refrigerant gas (steel tube).

Table 1. High/Low pressure switch

Trip Recover Unit

LP 40 +/-4 56 +/-4 psig

HP 650 +/-10 550 +/-10 psig

Controls

The control system offered to control the unit is the Tracer™ UC400 programmable BACnet™ unit controller. The UC400 controller is standard for all unit sizes.

All power wiring to the equipment is made at the unit

power block. VSH/V 460V units require a neutral wire.

System Input Devices and Functions

A zone sensor or building automation system is required

to operate the water-source heat pump.The flexibility of having several mode capabilities depends upon the type of sensor and/or remote panel selected.

Troubleshooting and connection diagrams for the UC400

control systems may be located in the back of this manual.

Pump Module (field installed accessory)

The pump module shall consist of either a single or dual

1/6 HP bronze pump and a brass 3-way shut-off valve. Cast iron pumps are also acceptable. The pump module kits shall contain the necessary components for the installation, operation and maintenance of the water circuit of a closed-loop distributed pumping application.

Table 2. Refrigerant charge

VSV R-410A (ounces)

VSV024 72 VSV033 72 VSV042 129 VSV050 129 VSV060 139 VSH024 72 VSH033 72 VSH042 138 VSH050 138 VSH060 150

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Unit Dimensions

Figure 1. Clearance dimensions* VSH

20"

UNIT FRONT

36"

LEFT RETURN RIGHT SUPPLY

20"

UNIT FRONT

LEFT RETURN BACK SUPPLY

Figure 2. Clearance dimensions* VSV

20"

36"

20"

UNIT FRONT UNIT FRONT

20"

36" 36"

RIGHT RETURN LEFT SUPPLY RIGHT RETURN BACK SUPPLY

24"

RIGHT RETURN

TOP/BACK SUPPLY

UNIT FRONT

36"

Clearance Dimensions

Access to the unit for service purposes should be provided

at installation. All configurations require clearance (see

Figure 2, p. 9 and Figure 1, p. 9) from other mechanical

and electrical equipment (as shown) to enable panel removal from the unit for service/maintenance ability. Some local and/or NEC codes require a greater service clearance than listed below. Check all code requirements prior to unit installations. The installer is responsible for compliance with local and NEC code requirements.

Note: *Units in a free return application will

require more than a 1 inch clearance to provide proper air flow to the units air-torefrigerant coil.

WSHP-SVX13C-EN 9

UNIT FRONT

36"

24"

LEFT RETURN

TOP/BACK SUPPLY

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Unit Dimensions

Figure 3. Left return/top supply - VSV with ECM

TOP

LEFT SIDE

8 3/4”

3 5/8”

BLOWER

ACCESS

COMP/CONTROL

ACCESS

HI VOLT

LO VOLT

FRONT RIGHT SIDE

12”

9 1/2”

3 5/8”

W.O. DRAIN

W.I.

Table 3. Dimensional data - left return/top supply -VSV with ECM

Units A B C D E F G H J K L M

024–033 24-1/2 41-7/8 26-1/2 18 3-1/4 5-3/4 9-1/2 20 23 10-1/2 13-1/2 3/16 3/4 3/4 3/4 042–050 26-1/2 46-7/8 30-1/2 18 4-1/4 2 9-1/2 24-1/4 27-7/8 13-7/8 11-3/8 1/2 1 1 3/4

Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

10 WSHP-SVX13C-EN

W.I.

NPTI

W.O. NPTI

Drain

FPT

Page 11

Figure 4. Left return/top supply - VSV 5 tons with ECM

Unit Dimensions

TOP

LEFT SIDE

BLOWER ACCESS

W.O.

COMP/CONTROL

10-5/8

ACCESS

HI VOLT

LO VOLT

4-5/8

FRONT

DRAIN

2 1/2"

W.I.

8 1/4"

RIGHT SIDE

Table 4. Dimensional data - left return/top supply -VSV060 with ECM

Units A B C D E F G H J K L M

060 26 62 30-1/2 13-1/4 13-5/8 5 13 39-3/4 30-3/8 13 8-5/8 N/A 1 1 3/4

Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

WSHP-SVX13C-EN 11

W.I.

NPTI

W.O. NPTI

Drain

FPT

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Unit Dimensions

Figure 5. Left return/back supply - VSV 5 tons with ECM

TOP

BLOWER

ACCESS

COMP/CONTROL

LEFT SIDE

8 3/4"

3 5/8"

ACCESS

HI VOLT

9 1/2"

LO VOLT

FRONT RIGHT SIDE

12"

3 5/8"

W.O. DRAIN

W.I .

Table 5. Dimensional data - left return/back supply -VSV060 with ECM

W.I.

Units A B C D E F G H J K L M

024–033 24-1/2 41-7/8 26-1/2 18 3-1/4 1-7/8 9-1/2 20 23 10-1/2 13-1/2 3/16 3/4 3/4 3/4 042–050 26-1/2 46-7/8 30-1/2 18 4-1/4 2 9-1/2 24-1/4 27-7/8 13-7/8 11-3/8 1/2 1 1 3/4 Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

NPTI

W.O.

Drain

FPT

12 WSHP-SVX13C-EN

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Figure 6. Left return/back supply - VSV 5 tons with ECM

TOP

BLOWER ACCESS

Unit Dimensions

W.O.

COMP/CONTROL

LEFT SIDE

10-5/8

ACCESS

HI VOLT

LO VOLT

4-5/8

FRONT

DRAIN

2 1/2"

W.I.

8 1/4"

RIGHT SIDE

Table 6. Dimensional data - left return/back supply -VSV060 with ECM

W.I.

Units A B C D E F G H J K L M

060 26 62 30-1/2 13-1/4 13-5/8 5 6-1/2 39-3/4 30-3/8 13 8-5/8 N/A 1 1 3/4

Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

NPTI

W.O.

Drain

FPT

WSHP-SVX13C-EN 13

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Unit Dimensions

Figure 7. Right return/top supply - VSV with ECM

BLOWER

ACCESS

D L

J M

TOP

COMP/CONTROL

ACCESS

W.O.

HI VOLT

LO VOLT

LEFT SIDE

8 3/4"

3 5/8"

Table 7. Dimensional data - right return/top supply -VSV with ECM

Units A B C D E F G H J K L M

DRAIN

12"

3 5/8"

9 1/2"

W.I .

FRONT RIGHT SIDE

W.I.

NPTI

W.O. NPTI

Drain

FPT

024–033 24-1/2 41-7/8 26-1/2 18 3-1/4 5-3/4 9-1/2 20 23 10-1/2 13-1/2 3/16 3/4 3/4 3/4 042–050 26-1/2 46-7/8 30-1/2 18 4-1/4 2 9-1/2 24-1/4 27-7/8 13-7/8 11-3/8 1/2 1 1 3/4 Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

14 WSHP-SVX13C-EN

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Figure 8. Right return/top supply - VSV 5 tons with ECM

Unit Dimensions

TOP

BLOWER ACCESS

W.O.

DRAIN

2 1/2"

W.I.

8 1/4"

RIGHT SIDE

LEFT SIDE

10-5/8

4-5/8

COMP/CONTROL

ACCESS

HI VOLT

LO VOLT

FRONT

Table 8. Dimensional data - right return/top supply - VSV060 with ECM

Units A B C D E F G H J K L M

060 26 62 30-1/2 13-1/4 13-5/8 5 7-7/8 39-3/4 30-3/8 13 8-5/8 N/A 1 1 3/4

Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

WSHP-SVX13C-EN 15

W.I.

NPTI

W.O. NPTI

Drain

FPT

Page 16

Unit Dimensions

Figure 9. Right return/back supply VSV with ECM

BLOWER

ACCESS

J M

TOP

COMP/CONTROL

ACCESS

W.O.

HI VOLT

LO VOLT

LEFT SIDE

8 3/4"

3 5/8"

DRAIN

12"

W.I .

FRONT RIGHT SIDE

9 1/2"

3 5/8"

Table 9. Dimensional data - right return/back supply - VSV with ECM

Units A B C D E F G H J K L M

024–033 24-1/2 41-7/8

042–050 26-1/2 46-7/8 30-1/2 18 4-1/4 2 9-1/2 24-1/4 27-7/8 13-7/8 11-3/8 1/2 1 1 3/4 Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

26-1/2

(673)

18 3-1/4 1-7/8 9-1/2 20 23 10-1/2 13-1/2 3/16 3/4 3/4 3/4

NPTI

W.I.

W.O.

NPTI

Drain

FPT

16 WSHP-SVX13C-EN

Page 17

Figure 10. Right return/back supply - VSV 5 tons with ECM

BLOWER ACCESS

Unit Dimensions

TOP

W.O.

DRAIN

2 1/2"

W.I.

8 1/4"

RIGHT SIDE

LEFT SIDE

10-5/8

4-5/8

COMP/CONTROL

ACCESS

HI VOLT

LO VOLT

FRONT

Table 10. Dimensional data - right return/back supply - VSV060 with ECM

W.I.

Units A B C D E F G H J K L M

060 26 62 30-1/2 13-1/4 13-5/8 4 1-1/2 39-3/4 30-3/8 13 8-5/8 N/A 1 1 3/4

Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

NPTI

W.O.

Drain

FPT

WSHP-SVX13C-EN 17

Page 18

Unit Dimensions

Figure 11. Left return/top supplyVSV with plenum fan

TOP

LEFT SIDE

9-3/4

BLOWER

ACCESS

W.O. DRAIN

W.I.

RIGHT SIDE

3.56

HI VOLT

LO VOLT

FRONT

9-1/2

3-5/8

Table 11. Dimensional data—left return/top supply with plenum fan

Units A B C D E F G H J K L M

024-033 24-1/2 66-3/32 26-1/2 18 3-1/4 7-23/32 9-1/2 20 23 N/A N/A 1/4 3/4 3/4 3/4 042-050 26-1/2 71-3/32 30-1/2 18 4-1/4 5-23/32 9-1/2 24-1/4 27-7/8 N/A N/A 1/2 1 1 3/4

Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

18 WSHP-SVX13C-EN

W.I.

NPTI

W.O. NPTI

Drain

FPT

Page 19

Figure 12. Left return/top supply — VSV060 with plenum fan

D G

TOP

BLOWER

ACCESS

Unit Dimensions

LEFT SIDE

10-5/8

4-5/8

W.O.

HI VOLT

LO VOLT

FRONT

A C

26.0780

DRAIN

W.I.

8-1/4

2-1/2

RIGHT SIDE

Table 12. Dimensional data—left return/top supply - VSV060 with plenum fan

W.I.

Units A B C D E F G H J K L M

060 26 86-1/4 30-1/2 18 N/A 4 7-3/4 39-3/4 30-3/8 N/A N/A N/A 1 1 3/4

Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

NPTI

W.O.

Drain

FPT

WSHP-SVX13C-EN 19

Page 20

Unit Dimensions

Figure 13. Right return/top supply with plenum fan

F D

BLOWER ACCESS

HI VOLT

3.56

9-3/4

LEFT SIDE

LO VOLT

FRONT

9-1/2

3-5/8

TOP

W.O. DRAIN

W.I.

RIGHT SIDE

Table 13. Dimensional data - right return/top supply with plenum fan

Units A B C D E F G H J K L M

024–033 24-1/2 66-3/32 26-1/2 18 3-1/4 7-23/32 9-1/2 20 23 N/A N/A 1-3/4 3/4 3/4 3/4 042–050 26-1/2 71-3/32 30-1/2 18 4-1/4 5-23/32 9-1/2 24-1/4 27-7/8 N/A N/A 1/2 1 1 3/4 Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

20 WSHP-SVX13C-EN

W.I.

NPTI

W.O. NPTI

Drain

FPT

Page 21

Figure 14. Right return/top supply -VSV060 with plenum fan

BLOWER ACCESS

Unit Dimensions

TOP

HI VOLT

LO VOLT

FRONT

A C

26.0780

LEFT SIDE

10-5/8

4-5/8

W.O.

DRAIN

8-1/4

2-1/2

W.I.

RIGHT SIDE

Table 14. Dimensional data - right return/top supply - VSV060 with plenum fan

W.I.

Units A B C D E F G H J K L M

060 26 86-1/4 30-1/2 18 N/A 4 7-3/4 39-3/4 30-3/8 N/A N/A N/A 1 1 3/4

Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

NPTI

W.O.

Drain

FPT

WSHP-SVX13C-EN 21

Page 22

Unit Dimensions

Figure 15. Left return/back supply VSH

1-1/8

1-1/821-1/4

23-3/4

TOP

L K

F H

3-1/2

DRAIN

3/4" NPTI

1/2

1-5/8

BACK

LEFT SIDE

RIGHT SIDE

Table 15. Dimensional data— left return/back supply

BLOWER ACCESS PANEL

F X G

OPENING

1-7/8

L(W.O.)

REFRIG AND CONTROL ACCESS

HI VOLT

M(W.I.)

LO VOLT

7/8 2-1/2

18-7/8

2-1/4

FRONT

Units A B C D E F x G H J K L M

NPTI

W.O. NPTI

Drain

FPT

W.I.

024–033 60-1/4 26 21-3/8 24 22 13-1/4 x 13-5/8 7-3/4 1-1/2 32-1/2 1-1/4 18-3/8 3/4 3/4 3/4 042–060 81-1/4 26 21-3/8 25-1/2 22 13-1/4 x 13-5/8 7-5/8 2-1/8 52 1-1/4 18-3/8 1 1 3/4 Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

22 WSHP-SVX13C-EN

Page 23

Figure 16. Left return/right supply VSH

1-1/8

Unit Dimensions

21-1/4

1-1/8

23-3/4

TOP

L K

DRAIN

3/4" NPTI

BLOWER ACCESS PANEL

3-1/2

1-5/8

1/2

BACK

RIGHT SIDE

Table 16. Dimensional data— left return/right supply

F H

1-7/8

F X G

OPENING

L(W.O.)

REFRIG AND CONTROL

ACCESS

HI VOLT

LO VOLT

M(W.I.)

2-1/2

18-7/8

2-1/4

FRONTLEFT SIDE

Units A B C D E F x G H J K L M

NPTI

W.O. NPTI

Drain

FPT

W.I.

024–033 60-1/4 26 21-3/8 24 22 13-1/4 x 13-5/8 4-3/4 6-1/4 32-1/2 1-1/4 18-3/8 3/4 3/4 3/4 042–060 81-1/4 26 21-3/8 25-1/2 22 13-1/4 x 13-5/8 7-3/4 6-1/4 52 1-1/4 18-3/8 1 1 3/4 Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

WSHP-SVX13C-EN 23

Page 24

Unit Dimensions

Figure 17. Right return/back supply VSH

L K

23-3/4

TOP

1-1/8

1-5/8

3-1/2

1/2

DRAIN 3/4 NPTI

BACK

F X G

OPENING

1.875

BLOWER ACCESS PANEL

LEFT SIDE

RIGHT SIDE

Table 17. Dimensional data — right return/back supply

21-1/4

1-1/8

L(W.O.)

REFRIG AND CONTROL

ACCESS

HI VOLT

LO VOLT

M(W.I.)

2-1/27/8

18-7/8

2-1/4

FRONT

Units A B C D E F x G H J K L M

NPTI

W.O. NPTI

Drain

FPT

W.I.

024–033 60-1/4 26 21-3/8 24 22 13-1/4 x 13-5/8 5-1/4 6-1/4 32-1/2 1-1/4 18-3/8 3/4 3/4 3/4 042–060 81-1/4 26 21-3/8 25-1/2 22 13-1/4 x 13-5/8 5-1/8 6-1/4 52 1-1/4 18-3/8 1 1 3/4 Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

24 WSHP-SVX13C-EN

Page 25

Figure 18. Right return/left supplyVSH

Unit Dimensions

L K

23-3/4

TOP

1-1/8

BLOWER ACCESS

3-1/2

PANEL

1-7/8

H F

1-5/8

1/2

RIGHT SIDE

Table 18. Dimensional data — right return/left supply

F X G

OPENING

LEFT SIDEBACK

21-1/4 1-1/8

L(W.O.)

REFRIG AND CONTROL

ACCESS

HI VOLT

LO VOLT

7/8 2-1/2

18-7/8

2-1/4

M(W.I.)

FRONT

Units A B C D E F x G H J K L M

NPTI

W.O. NPTI

Drain

FPT

W.I.

024–033 60-1/4 26 21-3/8 24 22 13-1/4 x 13-5/8 4-7/8 1-1/2 32-1/2 1-1/4 18-3/8 3/4 3/4 3/4 042–060 81-1/4 26 21-3/8 25-1/2 22 13-1/4 x 13-5/8 4-3/4 1-1/2 52 1-1/4 18-3/8 1 1 3/4 Note: Access to the unit for service purposes should be provided at installation. Local and/or NEC codes may require greater service clearance. Check all

code requirements prior to the unit installation. Installer is responsible for following all local and NEC code requirements.

WSHP-SVX13C-EN 25

Page 26

Unit Fan Performance

0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 0.4 0.45 0.5 0.55 0.6

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

796 0.040 300 0.050 362 0.060 419 0.070 470 0.080 516 0.090 557 0.099 595 0.109 629 0.118 660 0.127 689 0.136 715 0.145 739 0.155 762

840 0.042 311 0.053 372 0.064 427 0.074 477 0.085 523 0.095 564 0.105 601 0.115 634 0.125 665 0.134 693 0.144 720 0.154 745 0.163 768

885 0.045 323 0.057 382 0.068 436 0.079 485 0.090 529 0.100 570 0.111 606 0.121 640 0.131 670 0.142 698 0.152 725 0.162 750 0.172 774

930 0.048 334 0.060 392 0.072 445 0.083 493 0.095 536 0.106 576 0.117 612 0.128 645 0.139 675 0.149 703 0.160 730 0.171 755 0.181 779

974 0.052 346 0.064 403 0.076 454 0.088 501 0.100 544 0.112 582 0.123 618 0.135 650 0.146 680 0.157 708 0.168 734 0.180 760 0.191 785

Unit Fan Performance

Model External static pressure (inches of water)

Table 19. VSH* blower performance

CFM

VSH024

26 WSHP-SVX13C-EN

1019 0.056 359 0.069 414 0.081 464 0.094 509 0.106 551 0.118 589 0.130 623 0.142 655 0.154 685 0.166 713 0.177 739 0.189 765 0.200 790

0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 0.4 0.45 0.5 0.55 0.6

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1014 0.084 397 0.097 451 0.110 501 0.123 546 0.135 587 0.148 624 0.160 658 0.172 690 0.184 719 0.196 747 0.208 774 0.220 799 0.232 824

1076 0.090 415 0.104 467 0.118 515 0.131 558 0.144 597 0.157 633 0.170 667 0.183 697 0.195 726 0.208 754 0.221 780 0.233 806 0.246 831

1138 0.098 433 0.112 483 0.126 529 0.140 570 0.154 608 0.168 643 0.181 675 0.195 705 0.208 733 0.221 760 0.234 787 0.247 813 0.260 839

VSH033

1200 0.106 452 0.121 500 0.136 544 0.151 583 0.165 620 0.179 653 0.193 684 0.207 713 0.221 741 0.235 767 0.248 793 0.262 819 0.276 846

1262 0.116 472 0.132 518 0.147 559 0.162 597 0.177 632 0.192 664 0.206 693 0.221 722 0.235 749 0.249 775 0.264 800 0.278 826 0.292 853

1324 0.127 493 0.143 536 0.159 575 0.175 611 0.190 644 0.205 675 0.220 703 0.235 731 0.250 757 0.265 782 0.280 808 0.295 833 0.309 860

0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 0.4 0.45 0.5 0.55 0.6

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1414 0.102 451 0.117 488 0.133 523 0.149 556 0.164 588 0.180 619 0.196 647 0.211 675 0.226 701 0.241 726 0.256 749 0.270 771 0.284 792

1485 0.117 471 0.133 507 0.150 541 0.166 573 0.183 604 0.199 633 0.216 662 0.232 689 0.248 714 0.264 738 0.279 762 0.294 783 0.309 804

1579 0.140 499 0.157 532 0.175 565 0.192 596 0.210 626 0.228 654 0.245 681 0.262 708 0.279 732 0.296 756 0.312 779 0.328 800 0.344 821

VSH042

1650 0.158 519 0.177 552 0.195 583 0.214 613 0.232 642 0.251 670 0.269 697 0.287 722 0.305 747 0.322 770 0.340 792 0.356 814 0.373 834

1721 0.179 539 0.198 571 0.217 601 0.237 631 0.256 659 0.276 686 0.295 712 0.314 737 0.332 761 0.351 784 0.369 806 0.386 828 0.403 848

1815 0.208 566 0.229 596 0.250 625 0.270 654 0.291 681 0.312 707 0.332 733 0.352 757 0.372 781 0.391 803 0.411 825 0.429 846 0.448 866

0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 0.4 0.45 0.5 0.55 0.6

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1414 0.102 451 0.117 488 0.133 523 0.149 556 0.164 588 0.180 619 0.196 647 0.211 675 0.226 701 0.241 726 0.256 749 0.270 771 0.284 792

1485 0.117 471 0.133 507 0.150 541 0.166 573 0.183 604 0.199 633 0.216 662 0.232 689 0.248 714 0.264 738 0.279 762 0.294 783 0.309 804

1579 0.140 499 0.157 532 0.175 565 0.192 596 0.210 626 0.228 654 0.245 681 0.262 708 0.279 732 0.296 756 0.312 779 0.328 800 0.344 821

VSH050

1650 0.158 519 0.177 552 0.195 583 0.214 613 0.232 642 0.251 670 0.269 697 0.287 722 0.305 747 0.322 770 0.340 792 0.356 814 0.373 834

1721 0.179 539 0.198 571 0.217 601 0.237 631 0.256 659 0.276 686 0.295 712 0.314 737 0.332 761 0.351 784 0.369 806 0.386 828 0.403 848

2077 0.301 624 0.326 652 0.350 679 0.374 705 0.399 730 0.423 754 0.447 778 0.471 801 0.494 823 0.517 845 0.540 866 0.562 886 0.584 906

Page 27

Unit Fan Performance

0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 0.4 0.45 0.5 0.55 0.6

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1803 0.240 574 0.262 610 0.282 641 0.301 671 0.319 698 0.337 724 0.354 748 0.371 770 0.388 792 0.405 813 0.422 833 0.439 854 0.457 875

1908 0.275 603 0.298 637 0.319 667 0.340 696 0.360 722 0.379 747 0.397 770 0.416 792 0.434 813 0.452 834 0.470 854 0.488 874 0.507 895

2014 0.314 631 0.338 664 0.361 693 0.383 721 0.405 746 0.425 770 0.445 792 0.465 814 0.484 834 0.503 855 0.523 874 0.542 894 0.562 915

2120 0.357 659 0.383 690 0.408 719 0.431 745 0.454 770 0.476 793 0.497 815 0.518 836 0.539 856 0.560 876 0.580 895 0.601 915 0.623 935

2226 0.405 686 0.432 716 0.458 744 0.483 769 0.508 793 0.531 816 0.554 837 0.577 857 0.599 877 0.621 896 0.644 916 0.666 935 0.689 956

2332 0.457 711 0.486 741 0.514 768 0.541 793 0.567 816 0.592 838 0.617 859 0.641 879 0.665 898 0.689 917 0.712 936 0.736 955 0.761 976

Model External static pressure (inches of water)

Table 19. VSH* blower performance (continued)

VSH060

Table 20. VSV ECM/blower performance

WSHP-SVX13C-EN 27

0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 0.4 0.45 0.5 0.55 0.6

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

837 0.070 456 0.079 505 0.090 551 0.101 595 0.114 637 0.127 677 0.140 714 0.153 750 0.167 784 0.180 815 0.192 845 0.204 873 0.214 899

884 0.081 483 0.090 529 0.101 572 0.113 614 0.126 654 0.140 692 0.154 729 0.168 763 0.182 796 0.196 827 0.210 857 0.222 885 0.234 911

930 0.092 508 0.102 551 0.113 593 0.125 633 0.139 671 0.153 708 0.168 743 0.183 776 0.198 808 0.213 839 0.227 868 0.240 896 0.253 923

CFM

Model External static pressure (inches of water)

977 0.105 534 0.115 575 0.127 614 0.140 652 0.154 689 0.168 724 0.184 758 0.200 790 0.215 821 0.231 851 0.246 880 0.261 908 0.274 935

VSV024

1023 0.118 559 0.129 597 0.141 635 0.154 671 0.169 706 0.184 739 0.200 772 0.217 804 0.233 834 0.250 864 0.266 892 0.281 920 0.296 947

0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 0.4 0.45 0.5 0.55 0.6

CFM

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

1080 0.118 538 0.128 571 0.138 603 0.151 634 0.164 664 0.178 693 0.192 722 0.207 750 0.222 777 0.237 803 0.252 829 0.267 854 0.280 879

1140 0.137 568 0.147 598 0.158 628 0.171 657 0.184 685 0.199 713 0.214 740 0.230 766 0.246 792 0.262 818 0.278 844 0.293 869 0.308 894

1200 0.158 596 0.168 624 0.179 652 0.192 679 0.207 705 0.222 731 0.238 757 0.254 783 0.271 808 0.288 833 0.305 858 0.322 883 0.338 908

VSV033

1260 0.181 625 0.191 651 0.203 676 0.217 701 0.232 726 0.247 751 0.264 775 0.281 800 0.299 824 0.317 849 0.335 874 0.352 898 0.369 923

1320 0.206 653 0.217 676 0.229 700 0.243 723 0.259 746 0.275 770 0.292 793 0.310 817 0.329 841 0.348 865 0.366 889 0.385 913 0.403 938

0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 0.4 0.45 0.5 0.55 0.6

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1485 0.175 553 0.207 599 0.237 641 0.266 680 0.294 716 0.320 750 0.346 782 0.372 812 0.398 841 0.424 870 0.451 898 0.480 927 0.509 956

1568 0.202 580 0.236 624 0.268 665 0.299 703 0.328 737 0.357 770 0.385 801 0.413 830 0.441 859 0.469 887 0.498 916 0.528 944 0.559 974

1650 0.231 607 0.267 650 0.301 689 0.334 725 0.366 758 0.396 790 0.426 820 0.456 848 0.486 876 0.516 904 0.547 932 0.579 961 0.613 991

VSV042

1733 0.262 634 0.300 674 0.336 711 0.371 746 0.405 778 0.437 808 0.469 837 0.501 865 0.533 893 0.566 920 0.599 948 0.633 977 0.668 1007

1815 0.294 659 0.334 698 0.373 733 0.410 766 0.446 797 0.481 826 0.515 854 0.549 881 0.583 908 0.617 935 0.652 963 0.689 991 0.726 1021

Page 28

Unit Fan Performance

0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 0.4 0.45 0.5 0.55 0.6

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1701 0.265 636 0.305 678 0.343 716 0.379 752 0.414 785 0.448 817 0.481 847 0.514 875 0.547 904 0.581 932 0.615 960 0.650 990 0.687 1020

1796 0.304 666 0.346 706 0.387 742t 0.426 776 0.463 808 0.500 838 0.535 867 0.571 895 0.607 922 0.643 950 0.679 978 0.717 1007 0.757 1038

1890 0.345 695 0.391 733 0.434 767 0.475 799 0.515 829 0.554 858 0.593 886 0.631 912 0.669 939 0.708 966 0.747 994 0.788 1023 0.830 1054

Model External static pressure (inches of water)

Table 20. VSV ECM/blower performance (continued)

VSV050

1985 0.390 724 0.438 759 0.483 791 0.528 821 0.570 850 0.612 877 0.653 903 0.694 929 0.735 955 0.777 981 0.819 1009 0.862 1038 0.906 1068

2079 0.436 751 0.486 783 0.535 814 0.582 842 0.628 868 0.672 894 0.716 919 0.760 944 0.804 969 0.848 995 0.892 1022 0.938 1050 0.986 1081

0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 0.4 0.45 0.5 0.55 0.6

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1816 0.153 515 0.185 558 0.214 598 0.242 634 0.269 667 0.295 696 0.319 724 0.344 750 0.368 774 0.392 798 0.417 821 0.443 845 0.469 870

28 WSHP-SVX13C-EN

1918 0.185 542 0.218 585 0.249 623 0.279 658 0.308 690 0.335 719 0.362 746 0.388 771 0.414 794 0.440 818 0.466 840 0.493 864 0.521 888

2019 0.220 570 0.256 612 0.289 649 0.321 683 0.351 714 0.380 742 0.409 768 0.437 792 0.464 815 0.492 838 0.520 860 0.549 883 0.578 907

VSV060

2121 0.261 599 0.299 639 0.334 675 0.367 708 0.400 738 0.431 765 0.461 790 0.491 814 0.520 837 0.550 859 0.579 881 0.610 903 0.641 926

2222 0.308 627 0.347 666 0.384 702 0.420 734 0.454 763 0.487 789 0.519 813 0.550 836 0.582 858 0.613 880 0.645 901 0.677 923 0.710 946

2324 0.361 656 0.402 694 0.441 728 0.478 759 0.514 787 0.549 813 0.583 837 0.616 859 0.649 880 0.683 901 0.716 922 0.750 944 0.784 967

Page 29

Unit Fan Performance

0.0 0.1 0.2 0.3 0.4 0.5 0.6 0.7 0.8 0.9 1.0

1.1 1.2 1.3 1.4 1.5 1.6 1.7 1.8 1.9 2.0 2.1

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

847 0.100 691 0.114 762 0.127 829 0.141 892 0.156 953 0.171 1011 0.187 1066 0.203 1119 0.220 1169 0.237 1217 0.254 1262

889 0.105 713 0.119 782 0.133 848 0.148 911 0.163 971 0.179 1028 0.195 1083 0.211 1134 0.228 1184 0.246 1231 0.264 1276

930 0.110 735 0.124 803 0.139 869 0.154 931 0.170 990 0.186 1046 0.203 1099 0.220 1150 0.237 1199 0.255 1246 0.274 1290

CFM

Model External static pressure (inches of water)

Table 21. VSV*024 plenum fan performance

971 0.115 757 0.130 825 0.145 889 0.161 950 0.177 1008 0.193 1063 0.211 1116 0.228 1167 0.246 1215 0.265 1261 0.284 1304

VSV*024

1012 0.120 780 0.135 846 0.151 909 0.167 969 0.184 1027 0.201 1081 0.219 1133 0.237 1183 0.256 1230 0.275 1276 0.294 1319

WSHP-SVX13C-EN 29

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

847 0.272 1306 0.291 1348 0.310 1388 0.329 1426 0.349 1464 0.369 1500 0.390 1535 0.412 1569 0.433 1602 0.456 1634 0.478 1666

889 0.283 1319 0.301 1361 0.321 1400 0.341 1438 0.361 1475 0.382 1511 0.403 1546 0.425 1579 0.448 1612 0.470 1645 0.494 1677

VSV*024

930 0.293 1333 0.312 1374 0.332 1413 0.353 1451 0.374 1487 0.395 1523 0.417 1557 0.439 1591 0.462 1623 0.485 1656 0.509 1688

971 0.303 1347 0.323 1387 0.344 1426 0.365 1463 0.386 1499 0.408 1534 0.430 1569 0.453 1602 0.477 1635 0.500 1667 0.525 1699

1012 0.314 1360 0.335 1400 0.356 1439 0.377 1476 0.399 1512 0.421 1546 0.444 1580 0.468 1614 0.491 1646 0.516 1678 0.540 1710

2.2 2.3 2.4 2.5 kW RPM kW RPM kW RPM kW RPM

CFM

847 0.501 1698 0.525 1730 0.549 1761 0.574 1793

889 0.517 1709 0.541 1740 0.566 1772 0.591 1804

VSV*024

930 0.533 1720 0.558 1751 0.583 1783 0.609 1815

971 0.549 1731 0.574 1762 0.600 1794 0.626 1826

1012 0.566 1742 0.591 1774 0.617 1806 0.644 1838

Page 30

Unit Fan Performance

0.0 0.1 0.2 0.3 0.4 0.5 0.6 0.7 0.8 0.9 1.0

1.1 1.2 1.3 1.4 1.5 1.6 1.7 1.8 1.9 2.0 2.1

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1091 0.131 824 0.147 888 0.164 949 0.181 1008 0.199 1063 0.217 1116 0.236 1167 0.255 1215 0.275 1261 0.295 1305 0.315 1347

1146 0.138 852 0.155 915 0.173 976 0.191 1033 0.209 1087 0.228 1139 0.247 1189 0.267 1236 0.288 1281 0.308 1325 0.330 1366

1200 0.146 880 0.164 942 0.182 1001 0.201 1057 0.220 1110 0.239 1161 0.259 1210 0.280 1256 0.301 1301 0.322 1343 0.344 1384

1256 0.155 907 0.173 968 0.192 1025 0.211 1080 0.231 1133 0.251 1183 0.272 1230 0.293 1276 0.315 1319 0.337 1361 0.359 1401

1311 0.163 933 0.182 992 0.202 1049 0.222 1102 0.242 1154 0.263 1203 0.284 1249 0.306 1294 0.329 1337 0.351 1378 0.375 1417

Model External static pressure (inches of water)

Table 22. VSV*033 plenum fan performance

VSV*033

30 WSHP-SVX13C-EN

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1091 0.336 1388 0.358 1427 0.380 1465 0.402 1501 0.425 1536 0.448 1570 0.472 1604 0.497 1637 0.521 1669 0.547 1701 0.572 1733

1146 0.351 1406 0.373 1444 0.396 1481 0.419 1517 0.443 1552 0.467 1586 0.491 1619 0.516 1652 0.542 1684 0.568 1716 0.594 1748

VSV*033

1200 0.367 1423 0.390 1461 0.413 1498 0.437 1533 0.461 1567 0.486 1601 0.511 1634 0.537 1667 0.563 1699 0.589 1730 0.616 1762

1256 0.382 1440 0.406 1477 0.430 1513 0.454 1548 0.479 1582 0.505 1615 0.531 1648 0.557 1680 0.584 1712 0.611 1744 0.639 1776

1311 0.398 1455 0.423 1492 0.447 1527 0.472 1562 0.498 1596 0.524 1629 0.551 1661 0.578 1693 0.605 1725 0.633 1757 0.662 1789

2.2 2.3 2.4 2.5 kW RPM kW RPM kW RPM kW RPM

CFM

1091 0.599 1765 0.625 1797 0.653 1829 0.680 1862

1146 0.621 1780 0.649 1812 0.676 1844 0.705 1877

VSV*033

1200 0.644 1794 0.672 1826 0.701 1859 0.730 1892

1256 0.667 1808 0.696 1840 0.725 1873 0.755 1906

1311 0.690 1821 0.720 1853 0.750 1886 0.780 1920

Page 31

Unit Fan Performance

0.0 0.1 0.2 0.3 0.4 0.5 0.6 0.7 0.8 0.9 1.0

1.1 1.2 1.3 1.4 1.5 1.6 1.7 1.8 1.9 2.0 2.1

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1491 0.148 883 0.167 940 0.187 996 0.208 1049 0.230 1100 0.252 1150 0.276 1198 0.300 1244 0.325 1288 0.350 1331 0.376 1373

1581 0.161 929 0.181 985 0.202 1038 0.224 1089 0.247 1139 0.270 1186 0.295 1233 0.320 1277 0.346 1320 0.372 1362 0.399 1403

1650 0.171 964 0.192 1018 0.214 1070 0.236 1119 0.260 1168 0.285 1214 0.310 1259 0.335 1302 0.362 1344 0.389 1385 0.416 1425

1717 0.182 999 0.203 1051 0.226 1101 0.249 1150 0.274 1197 0.299 1242 0.325 1285 0.351 1328 0.378 1369 0.406 1409 0.434 1447

1807 0.197 1046 0.219 1096 0.243 1144 0.267 1190 0.293 1235 0.319 1279 0.345 1321 0.373 1362 0.401 1401 0.429 1440 0.458 1477

Model External static pressure (inches of water)

Table 23. VSV*042 plenum fan performance

VSV*042

WSHP-SVX13C-EN 31

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1491 0.402 1414 0.429 1453 0.456 1491 0.483 1527 0.511 1563 0.538 1598 0.566 1633 0.593 1666 0.621 1699 0.648 1731 0.675 1763

1581 0.426 1442 0.453 1480 0.481 1517 0.509 1553 0.537 1588 0.566 1623 0.594 1656 0.622 1690 0.650 1722 0.678 1754 0.706 1786

VSV*042

1650 0.444 1463 0.472 1501 0.500 1537 0.529 1572 0.558 1607 0.587 1641 0.615 1675 0.644 1708 0.673 1740 0.701 1772 0.729 1804

1717 0.462 1485 0.491 1521 0.520 1557 0.549 1592 0.578 1626 0.608 1660 0.637 1693 0.666 1726 0.695 1758 0.724 1790 0.753 1822

1807 0.487 1514 0.516 1549 0.546 1584 0.576 1618 0.606 1652 0.636 1685 0.666 1718 0.696 1750 0.725 1782 0.755 1814 0.784 1846

2.2 2.3 2.4 2.5 kW RPM kW RPM kW RPM kW RPM

CFM

1491 0.702 1794 0.728 1826 0.754 1856 0.780 1887

1581 0.733 1818 0.760 1849 0.787 1880 0.813 1911

VSV*042

1650 0.757 1835 0.784 1867 0.811 1898 0.838 1930

1717 0.781 1853 0.809 1885 0.836 1917 0.863 1948

1807 0.813 1878 0.841 1909 0.869 1941 0.896 1974

Page 32

Unit Fan Performance

0.0 0.1 0.2 0.3 0.4 0.5 0.6 0.7 0.8 0.9 1.0

1.1 1.2 1.3 1.4 1.5 1.6 1.7 1.8 1.9 2.0 2.1

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1708 0.178 988 0.199 1040 0.222 1091 0.245 1140 0.269 1187 0.294 1232 0.320 1277 0.346 1319 0.373 1361 0.400 1401 0.428 1440

1799 0.193 1034 0.215 1085 0.239 1133 0.263 1180 0.288 1225 0.314 1269 0.340 1312 0.367 1353 0.395 1393 0.423 1432 0.452 1470

1890 0.208 1080 0.231 1129 0.256 1175 0.281 1220 0.307 1264 0.334 1306 0.361 1347 0.389 1387 0.418 1425 0.447 1463 0.476 1500

1980 0.224 1126 0.248 1172 0.274 1217 0.300 1260 0.326 1302 0.354 1342 0.382 1382 0.411 1420 0.440 1457 0.470 1494 0.500 1529

2070 0.240 1171 0.266 1215 0.292 1258 0.319 1299 0.346 1339 0.375 1378 0.404 1416 0.433 1453 0.464 1489 0.494 1524 0.525 1558

Model External static pressure (inches of water)

Table 24. VSV*050 plenum fan performance

VSV*050

32 WSHP-SVX13C-EN

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1708 0.456 1478 0.485 1514 0.513 1550 0.542 1586 0.571 1620 0.601 1654 0.630 1687 0.659 1720 0.688 1752 0.716 1784 0.745 1816

1799 0.481 1506 0.510 1542 0.540 1578 0.569 1612 0.599 1646 0.629 1679 0.659 1712 0.688 1744 0.718 1776 0.747 1808 0.776 1840

VSV*050

1890 0.506 1535 0.536 1570 0.566 1605 0.596 1638 0.627 1671 0.657 1704 0.688 1736 0.718 1769 0.748 1800 0.778 1832 0.808 1864

1980 0.531 1564 0.562 1598 0.593 1631 0.624 1664 0.655 1697 0.686 1729 0.717 1761 0.748 1793 0.779 1825 0.809 1856 0.839 1888

2070 0.556 1592 0.588 1625 0.620 1658 0.651 1690 0.683 1722 0.715 1754 0.747 1786 0.778 1817 0.809 1849 0.841 1880 0.871 1912

2.2 2.3 2.4 2.5 kW RPM kW RPM kW RPM kW RPM

CFM

1708 0.773 1847 0.800 1879 0.828 1910 0.854 1942

1799 0.805 1871 0.833 1903 0.861 1935 0.888 1967

VSV*050

1890 0.837 1896 0.866 1928 0.894 1960 0.922 1993

1980 0.869 1920 0.898 1953 0.927 1985 0.955 2018

2070 0.901 1945 0.931 1977 0.960 2010 0.989 2044

Page 33

Unit Fan Performance

0.0 0.1 0.2 0.3 0.4 0.5 0.6 0.7 0.8 0.9 1.0

1.1 1.2 1.3 1.4 1.5 1.6 1.7 1.8 1.9 2.0 2.1

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1816 0.133 992 0.152 1038 0.171 1084 0.190 1128 0.210 1171 0.231 1213 0.251 1255 0.272 1295 0.293 1335 0.315 1374 0.337 1412

1918 0.144 1047 0.164 1091 0.184 1134 0.204 1176 0.225 1217 0.246 1257 0.267 1297 0.289 1335 0.311 1373 0.333 1410 0.356 1447

2019 0.156 1102 0.177 1143 0.197 1184 0.219 1223 0.240 1262 0.262 1300 0.284 1338 0.307 1375 0.329 1411 0.353 1446 0.376 1481

2121 0.169 1156 0.190 1195 0.212 1233 0.234 1270 0.256 1307 0.278 1343 0.301 1378 0.325 1413 0.348 1448 0.372 1482 0.397 1515

2222 0.182 1209 0.204 1245 0.226 1280 0.249 1315 0.272 1350 0.296 1384 0.319 1417 0.343 1450 0.368 1483 0.393 1516 0.418 1548

Model External static pressure (inches of water)

Table 25. VSV*060 plenum fan performance

VSV*060

WSHP-SVX13C-EN 33

kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM kW RPM

CFM

1816 0.359 1449 0.382 1486 0.405 1521 0.428 1556 0.452 1591 0.475 1625 0.500 1658 0.524 1690 0.549 1722 0.574 1754 0.600 1785

1918 0.379 1483 0.403 1518 0.426 1552 0.450 1586 0.475 1620 0.499 1653 0.524 1685 0.550 1717 0.576 1749 0.602 1780 0.628 1811

VSV*060

2019 0.400 1516 0.424 1550 0.449 1583 0.473 1616 0.499 1649 0.524 1681 0.550 1713 0.576 1744 0.603 1775 0.629 1806 0.657 1837

2121 0.421 1548 0.446 1581 0.471 1613 0.497 1645 0.523 1677 0.549 1708 0.576 1739 0.603 1770 0.630 1801 0.658 1832 0.686 1862

2222 0.443 1579 0.469 1611 0.495 1642 0.521 1673 0.548 1704 0.575 1734 0.602 1765 0.630 1795 0.658 1826 0.687 1856 0.715 1886

2.2 2.3 2.4 2.5 kW RPM kW RPM kW RPM kW RPM

CFM

1816 0.626 1816 0.652 1846 0.679 1876 0.706 1905

1918 0.655 1842 0.682 1872 0.709 1902 0.737 1931

VSV*060

2019 0.684 1867 0.712 1897 0.740 1927 0.768 1957

2121 0.714 1892 0.743 1923 0.771 1953 0.801 1983

2222 0.744 1916 0.774 1947 0.804 1977 0.834 2008

Page 34

Unit Fan Performance

MERV Filter

Table 26. Added pressure drop through MERV filters (inches water column) – VSH

Model No. CFM MERV 8 MERV 13

742 0.08 0.09 836 0.09 0.10

VSH024

VSH033

VSH042

VSH050

VSH060

Note: Added pressure drop should be considered when utilizing optional 2" MERV 8 and MERV 13 filters.

930 0.10 0.12 977 0.11 0.12

1024 0.11 0.13

952 0.10 0.12 1076 0.12 0.14 1200 0.14 0.16 1262 0.15 0.17 1324 0.21 0.19 1324 0.09 0.10 1487 0.10 0.11 1650 0.11 0.13 1731 0.12 0.14 1813 0.13 0.15 1517 0.10 0.12 1704 0.12 0.14 1890 0.13 0.16 1983 0.14 0.17 2077 0.15 0.18 1890 0.13 0.16 2016 0.14 0.17 2120 0.15 0.18 2225 0.16 0.19 2329 0.17 0.21

Table 27. Added pressure drop through MERV filters (inches water column) – VSV

Model No. CFM MERV 8 MERV 13

837 0.12 0.14 884 0.13 0.15

VSV024

VSV033

VSV042

34 WSHP-SVX13C-EN

930 0.14 0.16

977 0.15 0.17 1023 0.15 0.18 1080 0.16 0.20 1140 0.18 0.21 1200 0.19 0.23 1260 0.20 0.24 1320 0.21 0.26 1485 0.13 0.15 1568 0.14 0.16 1650 0.15 0.17 1733 0.15 0.18 1815 0.16 0.19

Page 35

Table 27. Added pressure drop through MERV filters (inches water column) – VSV (continued)

Model No. CFM MERV 8 MERV 13

1701 0.15 0.18 1796 0.16 0.19

VSV050

VSV060

Notes: Added pressure drop should be considered when utilizing optional 2" MERV 8 and MERV 13 filters.

1890 0.17 0.21 1985 0.18 0.22 2079 0.19 0.23 1900 0.14 0.16 2021 0.15 0.17 2121 0.16 0.19 2221 0.17 0.20 2321 0.18 0.21

Unit Fan Performance

WSHP-SVX13C-EN 35

Page 36

General Data

Figure 19. Horizontal Supply/Return Air Configuration

The unit’s supply and return air

configuration is built to order to meet unique installation requirements.The combinations include:

1. Left return air with back supply air

2. Left return air with right supply air

3. Right return air with left supply air

4. Right return air with back supply air

UNIT

FRONT

UNIT

FRONT

UNIT

FRONT

UNIT

Figure 20. Vertical Supply/Return Air Configuration

The unit’s supply and return air

configuration is built to order to meet unique installation requirements.The combinations include:

1. Right return-air with top supply-air combination

UNIT

FRONT

UNIT

FRONT

2. Right return-air with back supply-air combination

3. Left return-air with top supply -air combination

4. Left return-air with back supply-air combination

UNIT

FRONT

UNIT

FRONT

Table 28. Cabinet

Model VSH* VSH*024 VSH*033 VSH*042 VSH*050 VSH*060

Length (inch) 60.2 60.2 81.2 81.2 81.2

Unit size

Compressor type Rotary Rotary Scroll Scroll Scroll Approximate weight With pallet (lb) 381 381 591 591 591 Approximate weight Without pallet (lb) 333 333 524 524 524

Nominal Filter size

Water in/out size (NPTI) Inches 3/4 3/4 1 1 1 Condensate size (NPTI) Inches 3/4 3/4 3/4 3/4 3/4 Blower wheel size Direct drive (inch) 11 x 10 11 x 10 11 x 10 11 x 10 11 x 10

Height (inch) 22.0 22.0 22.0 22.0 22.0 Width (inch) 26.0 26.0 26.0 26.0 26.0

Inches 16 x 20 16 x 20 20 x 25 20 x 25 20 x 25 Inches 20 x 20 20 x 20 20 x 30 20 x 30 20 x 30

36 WSHP-SVX13C-EN

Page 37

General Data

Table 29. Air-to-refrigerant coil

Model VSH* VSH*024 VSH*033 VSH*042 VSH*050 VSH*060

Working pressure 650 650 650 650 650 Tubes high 20 20 20 20 20 Tubes deep 3 3 4 4 4 Number of circuits 3 3 5 5 5 Finned volume (H, W, D: inches) 20 x 31.5 x 2.6 20 x 31.5 x 2.6 20 x 51 x 3.5 20 x 51 x 3.5 20 x 51 x 3.5 Coil surface area (ft Fins per inch 12 12 12 12 12 Tube material Copper Copper Copper Copper Copper Tube OD (inch) 3/8 3/8 3/8 3/8 3/8 Wall thickness (inch) 0.014 0.014 0.014 0.014 0.014 Return bends Copper Copper Copper Copper Copper

Table 30. Water volume

Model VSH* VSH*024 VSH*033 VSH*042 VSH*050 VSH*060

Internal water volume (in3) 142.4 142.4 331.2 331.2 331.2 Internal water volume (ft Internal water volume (gal) 0.616 0.616 1.434 1.434 1.434

) 4.375 4.375 7.083 7.083 7.083

) 0.082 0.082 0.192 0.192 0.192

Table 31. Cabinet

Model VSV* with ECM Option VSV*024 VSV*033 VSV*042 VSV*050 VSV*060

Length (inch) 26-1/2 26-1/2 30-1/2 30-1/2 30 1/2

Unit size

Compressor type Rotary Rotary Scroll Scroll Scroll Approximate weight With pallet (lb) 334 334 495 495 511 Approximate weight Without pallet (lb) 309 309 460 460 488 Nominal Filter size Inches 20 x 25 20 x 25 24 x 30 24 x 30 (2) 20 x 30 Water in/out size (NPTI) Inches 3/4 3/4 1 1 1 Condensate size (NPTI) Inches 3/4 3/4 3/4 3/4 3/4 Blower wheel size (ECM option) Direct drive (inch) 11 x 8 11 x 8 12 x 11 12 x 11 11 x 10

Height (inch) 41-7/8 41-7/8 46-7/8 46-7/8 62 1/2 Height (inch) 66-3/32 66-3/32 71-3/32 71-3/32 86-1/4 Width (inch) 24-1/2 24-1/2 26-1/2 26-1/2 26

Table 32. Air-to-refrigerant coil

Model VSV* VSV*024 VSV*033 VSV*042 VSV*50 VSV*060

Working pressure 650 650 650 650 650 Tubes high 18 18 24 24 39 Tubes deep 3 3 4 4 4 Number of circuits 4 4 6 6 6 Finned volume (H, W, D: inches) 18 x 21 x 2.6 18 x 21 x 2.6 24 x 25 x 3.5 24 x 25 x 3.5 39 x 29.3 x 3.5 Coil surface area (ft Fins per inch 12 12 12 12 12 Tube material Copper Copper Copper Copper Copper Tube OD (inch) 3/8 3/8 3/8 3/8 3/8 Wall thickness (inch) 0.014 0.014 0.014 0.014 0.014 Return bends Copper Copper Copper Copper Copper

) 2.63 2.63 4.17 4.17 6.97

WSHP-SVX13C-EN 37

Page 38

General Data

Table 33. Water volume

Model VSV* VSV*024 VSV*033 VSV*042 VSV*050 VSV*060

Internal water volume (in3) 212 212 414 414 414 Internal water volume (ft Internal water volume (gal) 0.918 0.918 1.792 1.792 1.792

) 0.123 0.123 0.24 0.24 0.24

Table 34. ISO Ratings (VSH)

(a)

Water Loop Heat Pump Ground Water Heat Pump Ground Loop Heat Pump

Cooling 86°F Heating 68°F Cooling 59°F Heating 50°F

Rated

Model Load

VSH*024

VSH*033

VSH*042

VSH*050

VSH*060

(a)Rated in accordance with ISO Standard 13256-1 - 1 1998, Water-to-Air and Brine-to-Air Heat Pumps. Certified conditions are 80.6°F DB/66.2°F WB

Partial 625 13,800 23.67 15,900 8.64 15,500 48.23 12,400 6.37 15,000 36.43 10,300 4.99

Partial 720 17,600 21.96 21,000 7.71 19,700 41.82 16,600 5.94 18,900 32.23 14,300 4.96

Partial 1065 24,100 23.26 29,800 8.21 27,200 48.49 23,500 6.45 26,100 35.38 18,800 5.39

Partial 1200 28,400 22.29 36,100 7.52 32,400 42.02 29,100 6.16 31,000 33.67 24,000 5.28

Partial 1323 36,400 20.56 46,500 6.77 40,900 37.58 37,400 5.72 39,100 31.43 31,300 5.06

EAT in cooling and 68°F DB/59°F WB EAT in heating. Entering liquid temperature in cooling is 86°F for Water Loop, 77°F for Ground Loop (full load), 68°F for Ground Loop (part load), and 59°F for Ground Water. Entering liquid temperature in heating is 68°F for Water Loop, 32°F for Ground Loop (full load), 41°F for Ground Loop (part load), and 50°F for Ground Water.

Table 35. ISO Ratings (VSV)

Full

GPM

CFM

930 25,100 18.30 30,300 6.44 28,400 31.76 24,300 5.33 26,200 21.82 18,500 4.35

6.2

1200 33,800 15.79 40,200 5.85 37,900 25.01 32,300 4.98 35,300 18.51 24,700 4.10

8.6

1650 42,600 18.60 51,800 6.70 47,300 30.90 42,000 5.60 44,600 22.00 31,500 4.50

10.5

1890 50,200 16.50 64,400 5.80 56,200 26.00 52,500 5.10 52,400 19.30 40,100 4.20

12.7

2100 60,700 14.80 81,600 5.30 67,300 22.80 66,800 4.70 63,200 17.00 50,400 3.80

15.6

Btuh EER

(a)

Capacity

Btuh COP

Capacity

Btuh EER

Capacity

Btuh COP

Part Cool 68°

Capacity

Btuh EER

Full Cool 77°F

Full Heat 32°F

Part Heat 41°F

Capacity

Btuh COP

Water Loop Heat Pump Ground Water Heat Pump Ground Loop Heat Pump

Cooling 86°F Heating 68°F Cooling 59°F Heating 50°F

Rated

Model Load

VSV*024

VSV*033

VSV*042

VSV*050

VSV*060

(a)Rated in accordance with ISO Standard 13256-1 - 1 1998, Water-to-Air and Brine-to-Air Heat Pumps. Certified conditions are 80.6°F DB/66.2°F WB

Partial 625 13,100 22.58 15,900 7.62 15,000 48.48 12,100 6.13 14,300 35.31 9,900 4.81

Partial 720 17,100 20.81 21,500 6.96 19,400 40.79 16,800 5.59 18,500 31.59 14,100 4.60

Partial 1065 25,500 24.17 29,400 7.50 28,700 51.26 22,700 5.85 26,900 40.50 17,800 4.59

Partial 1200 29,900 22.08 36,800 6.88 33,500 42.46 28,500 5.50 32,800 34.00 23,400 4.62

Partial 1323 35,900 21.28 46,300 7.30 41,300 41.38 36,200 5.91 39,600 32.88 30,400 5.29

Full

GPM

CFM

930 24,600 18.44 30,300 6.10 27,800 33.24 24,400 5.20 25,900 22.32 18,400 4.17

6.2

1200 32,900 15.47 40,400 5.46 36,600 24.67 32,400 4.77 34,300 18.08 24,500 3.86

8.3

1650 44,100 18.25 54,700 5.95 50,100 32.46 43,600 5.08 46,200 22.03 31,900 3.98

10.9

1890 51,200 15.72 68,800 5.32 57,800 26.19 54,600 4.58 54,100 18.76 41,400 3.75

13.0

2100 61,800 15.60 81,200 5.50 70,400 25.40 65,400 4.80 64,600 18.30 50,000 4.00

15.6

Btuh EER

Capacity

Btuh COP

Capacity

Btuh EER

Capacity

Btuh COP

Part Cool 68°

Capacity

Btuh EER

Full Cool 77°F

Full Heat 32°F

Part Heat 41°F

Capacity

Btuh COP

38 WSHP-SVX13C-EN

Page 39

Installation

General Installation Checks

The checklist below is a summary of the steps required to

successfully install a commercial unit. This checklist is intended to acquaint the installing personnel with what is required in the installation process. It does not replace the detailed instructions called out in the applicable sections of this manual.

1. Remove packaging and inspect the unit. Check the unit for shipping damage and material shortage; file a freight claim and notify appropriate sales representation.

Note: The VSV units have been tied to the skid by (2)

shipping bolts.The removal of these bolts will require a 3/8 inch (9.7 mm) ratchet with a ½ inch (12.7 mm) socket.

Note: The VSH units have been secured to the skid by

shipping brackets. The removal requires a ½” socket with a 3/8” ratchet.

2. Verify the correct model, options and voltage from the unit nameplate.

3. Pull out all field attached parts (i.e. filter rack, duct collar, filter and mounting screws) from the unit packaging for field mounting.

4. Verify the installation location of the unit will provide the required clearance for proper operation.

5. Remove refrigeration access panel and inspect the unit. Be certain the refrigerant tubing has clearance from adjacent parts.

Note: Removal of compressor shipping brackets is

required on models VSHE 042, 050, 060 &

VSVE060.The removal of the shipping brackets

requires a 1/2” socket with a 3/8” ratchet. A bracket is provided on the right and left side of the compressor and requires the removal of 4 bolts per bracket.

6. Fabricate and install duct work.

7. Install and connect a condensate drain line and trap to the drain connection.

WARNING

Hazardous Voltage!

Disconnect all electric power, including remote disconnects before servicing. Follow proper lockout/ tagout procedures to ensure the power can not be inadvertently energized. Failure to disconnect power before servicing could result in death or serious injury.

WARNING

Proper Field Wiring and Grounding Required!

All field wiring MUST be performed by qualified

personnel. Improperly installed and grounded field wiring poses FIRE and ELECTROCUTION hazards.To avoid these hazards, you MUST follow requirements for field wiring installation and grounding as described in NEC and your local/state electrical codes. Failure to follow codes could result in death or serious injury.

Main Electrical

8. Verify the power supply complies with the unit nameplate specifications.

9. Inspect all control panel components; tighten any loose connections.

10. Connect properly sized and protected power supply wiring to a field-supplied/installed disconnect switch and to the power block.

11. Install proper grounding wires to an earth ground.

VSV/VSH 460V units require a neutral (a four wire

system).

Note: All field-installed wiring must comply with NEC

and applicable local codes.

Low Voltage Wiring (AC) Requirements

12. Install the zone sensor.

13. Connect properly sized control wiring to the proper termination points between the zone sensor and the unit control panel.

Filter Installation

14. Each unit ships with 1 inch or 2 inch disposable, MERV 8 or MERV 13 filter(s).The filter is factory installed.

Note: Do not operate the unit without filters.

Supply-Air Ductwork

Install the 1 inch supply-air duct flange to the unit with the (8) 5/16 inch factory supplied head screws.The duct collar assembly for each unit is shipped with the unit in the same box where the IOM manual is located.

When attaching the field ductwork to the unit, provide a

watertight flexible connector at the unit to prevent operating sounds from transmitting through the ductwork. See Figure 21, p. 40.

Elbows with turning vanes or splitters are recommended to minimize air noise due to turbulence and to reduce static pressure.

WSHP-SVX13C-EN 39

Page 40

Installation

Figure 21. Flexible supply-air connector (field provided)

Return-Air Ductwork

The equipment factory ships with the filter rail and filter(s)

installed for free return.

When a ducted return is required, a ducted filter rack or

ducted panel must be installed on the unit.When attaching the field ductwork to the unit, provide a water tight flexible connector at the unit to prevent operating sounds from transmitting through the ductwork. See Figure 22, p. 40.

Elbows with turning vanes or splitters are recommended to minimize air noise due to turbulence and to reduce static pressure.

Note: Installation of a return-air ducted panel or ducted

filter rack require the removal of the filter rails.

Figure 22. Flexible return-air connector (field provided)

SUPPLY-AIR

DUCT COLLAR

placed up stream of the unit or placed within a field provided filter rack assembly.

Figure 23. Ducted panel

Table 36. Return air ducted panel (horizontal only)

Unit A B Part Number

024, 033 31.5” 19.2” 4476 0334 0100

042, 050, 060 51.1” 19.2” 4476 0335 0100

Ducted Filter Rack

When it is necessary to have filter access at the unit in a

ducted return, a ducted filter rack is available.This option allows access to the filter at the unit. Vertical unit filter racks are available in right or left access configurations. Horizontal units are available in side or bottom access configurations.

Figure 24. Ducted filter rack

RETURN

AIR

DUCT COLLAR (FACTORY PROVIDED)

Return Air Ducted Panel

Ducted panel

The return-air arrangement may be easily converted from

a free return-air system to a ducted return-air system with the addition of a return-air ducted panel. By replacing the filter rail with the return-air panel, a complete seal from the duct to the unit is possible.The 1-inch duct panel facilitates ease of field connection to the mechanical system.This accessory is typically used when the return air filter is

40 WSHP-SVX13C-EN

RETURN-AIR BOOT (FIELD PROVIDED)

Table 37. Ducted filter opening size

Unit A B C

VSH 024, 033 35.8” 20.2” 5.5”

VSH 042, 050, 060 54.8” 20.2” 5.5”

Page 41

Installation

Table 38. Ducted filter opening size

Unit A B C

VSV 024, 033 22.4” 25.7” 4.3” VSV 042, 050 26.6” 30.7” 5.5”

VSV060 30.5” 40.1” 5.5”

Sound Attenuation Pad

For sound-sensitive installations, a vibration pad (field provided) should be placed beneath the vertical unit.The pad should be ½ inch (12.7 mm) thick, and equal to the overall unit foot print.

Hanging the Horizontal Unit

WARNING

Risk of Unit Dropping!

You MUST mount the unit to an area of the ceiling

strong enough to support the weight of that unit. If unsure, you MUST confirm with a structural engineer. Failure to do so could result in unit dropping from the ceiling which could result in death or serious injury, and equipment damage.

To hang the horizontal configuration (see Figure 25, p. 41):

1. Install the hanging isolators (located in the return-air section of the unit) into the six hanging brackets.

2. Secure the equipment to a joist, concrete, etc. with the use of 3/8 in. field provided (all-thread) rod. Each corner should contain field provided nuts and washers to complete the hanging installation.

3. Slope horizontal units in two directions.The unit should contain a dual ¼-12 pitch toward the drain connection.This will insure proper drainage of the unit. All plumbing to the unit should conform per national and local codes and is the responsibility of the contractor.

Condensate Drain Connection

Figure 26. Negative pressure system

Install proper trapping to the equipment.The unit drain connection is ¾ in. NPT.

When designing the condensate trap for the water-source

system, it is important to consider the unit draw-thru design requiring negative pressure trapping.

In a properly trapped system, when condensate forms during normal operation, the water level in the trap rises until there is a constant flow. It is imperative to maintain water in the trap and not allow the trap to dry out during heating season. Keeping trap primed at all times will enable the water to flow properly. See Figure 26, p. 41 for appropriate dimensions required in a negative pressure system.

Supply/Return Pipe Connections

Figure 27. Supply/return pipe connections

Figure 25. Hanging the unit

RETURN-AIR

3/8" ALL-THREAD

(BY OTHERS) 3/8" WASHER / NUT (BY OTHERS)

WSHP-SVX13C-EN 41

SUPPLY-AIR

Connect the supply and return hoses to the water-inlet (from supply) and water-outlet (to return) of the unit. For vibration isolation, it is recommended that flexible steel braided hoses be installed instead of hard piping the equipment to the main loop system. Figure 27, p. 41 shows

Page 42

Installation

connection of a Hays Measurflo® balancing hose kit to the water-in and water-out of a vertical unit.

Note: Figure 27, p. 41 example incorporates the Hays

Measurflo® balancing hose kit and a 2-position isolation valve into the system design. An isolation valve is often used in variable-speed pumping applications.The isolation valve is designed to stop water flow to the unit during non-operation times.This allows the loop water pumps to run only when a requirement for pumping is needed for greater energy efficiency of the overall system design.

System balancing hose kit

For automatic system balancing of a water source heat pump, the Mesurflo® self-balancing hose kit provides a constant flow rate over the pressure differential rage of 2 to 80 psid. As system pressure changes (through further addition of heat pumps, for example) each individual flow control valve will automatically adjust to the new system conditions. In variable water volume applications, a selfbalancing hose kit can provide continuous balancing because of its ability to automatically adjust to the varying system conditions.

Note: At low differential pressure the flow area required

to achieve higher flow can exceed the flow area available for the respective series.Therefore, the minimum pressure differential requirement is increased for the higher flow ranges of each series Mesurflo valve.

Figure 28. Ball valve kit (manual)

Optional Isolation Valve

2-Position Valve

AUTOMATIC

TEMPERATURE

CONTROL

VALVE

Ball Valve

Optional Yball Strainer

w/Blowdown Valve &

Hose Connector

FLOW

Mesurmeter w/PT’s

Flex Hose

Figure 29. MeasurfloVac kit (automatic)

Optional Isolation Valve

2-Position Valve

AUTOMATIC

Flex Hose

TEMPERATURE

CONTROL

VALVE

2510 Mesurflo w/PT’s

Ball Valve

Optional Yball Strainer

w/Blowdown Valve &

Hose Connector

FLOW

Additional accessories, such as a strainer are

recommended for use to eliminate contaminants from entering the co-axial water-to-refrigerant heat exchanger.

Cleaning and Flushing the Water Loop

After the piping system is complete, the flexible hose

connectors should be disconnected from the unit and linked together using field supplied couplings (avoiding trash settle-out in the condenser). An extra pipe may be necessary to connect the hose kits.

1. Water circulation system should be filled with clean water using the water make up connections.

Note: Air vents should be open during filling.

2. With the air vents closed, start the circulating pump and then crack the air vents to bleed off the trapped air, assuring circulation through all components of the system.

Note: Make up water must be available to the system to

replace the volume formerly occupied by the air that is bled off.

3. With the air vented and the water circulating, the entire system should be checked for leaks with repairs made as required.

4. Operate the supplementary heat system (boiler) if applicable making checks per manufacturer’s instructions. During this operation, visual checks should be made for leaks that may have occurred due to increased heat. Repair as required.

5. Open the system at the lowest point for the initial blow down (making sure the make up water is equal to the water being dumped). Continue blow down until the water leaving the drain runs clear, but not less than 2 hours.

6. Shut down pumps and supplementary heat system (if applicable). Reconnect the hoses placing the water-torefrigerant heat exchanger in the water circulating system.

42 WSHP-SVX13C-EN

Page 43

Installation

Note: Vents should be open when the pumps and

supplementary heat system are shut down.

Field Installed Power Wiring

WARNING

Proper Field Wiring and Grounding Required!

All field wiring MUST be performed by qualified

WARNING

Live Electrical Components!

During installation, testing, servicing and troubleshooting of this product, it may be necessary to work with live electrical components. Have a qualified licensed electrician or other individual who has been properly trained in handling live electrical components perform these tasks. Failure to follow all electrical safety precautions when exposed to live electrical components could result in death or serious injury.

Location of the applicable electric service entrance for HIGH (line voltage) may be found in the Dimensions section of this manual.

The high-voltage connection is made at the power block

inside the unit control box. Refer to the customer connection diagram that is shipped with the unit for specific termination points.

Provide proper grounding for the unit in accordance with the local and national codes.

Control PowerTransformer

The 24V control power transformer is to be used only with

the accessories called out in this manual. All variablespeed WSHP units include a 75 VA control transformer equipped with a circuit breaker. If a circuit breaker trips, turn OFF all power to the unit before attempting to reset it.

WARNING

Hazardous Voltage!

Sensor Location

Figure 30. Sensor location

NOTICE:

Use Copper Conductors Only!

Unit terminals are not designed to accept other types of conductors. Failure to use copper conductors may result in equipment damage.

Verify that the power supply available is compatible with

the unit’s nameplate. Use only copper conductors to connect the power supply to the unit.

Main Unit Power Wiring

WARNING

Proper Field Wiring and Grounding Required!

All field wiring MUST be performed by qualified

A field supplied disconnect switch must be installed at or

near the unit in accordance with the National Electric Code (NEC latest edition).

YES

5 Feet

Location of the zone sensor is an important element of effective room control.

Areas where the zone sensor should not be located

include:

• Behind doors or corners

• Near hot or cold air ducts

• Near radiant heat (this is heat emitted from appliances or the sun)

• Near concealed pipes or chimneys

• On outside walls or other non conditioned surfaces

In air-flows from adjacent zones or other units.Controls Using 24 VAC

WSHP-SVX13C-EN 43

Page 44

Installation

Before installing any wire, refer to the electrical access locations in “Unit Dimensions,” p. 9 of this manual.

Ensure that the AC control wiring between the controls and the unit’s termination point does not exceed three (3) ohms/conductor for the length of the run.

Note: Resistance in excess of 3Ω per conductor may

cause component failure due to insufficient AC voltage supply.

Check all loads and conductors for grounds, shorts, and mis-wiring.

Installation of the

Axiom

model VS

Whether

securing the Axiom model VS to a central

pumping

system or a

distributed

pumping

system,Trane

recommends a

few accessory

considerations

to the system

installation.

Use copper conductors unless otherwise specified.

Do not run the AC low voltage wiring in the same conduit with the high voltage power wiring.

Table 39. 24V AC conductors

Distance from unit to

control Recommended wire size

0-460 feet 18 gauge

461-732 feet 16 gauge

733-1000 feet 14 gauge

Capped

Vente d

The field supplied line voltage disconnect (1) should be

installed for branch circuit protection.

Check local codes for requirements.

• The units (2) ¾-inch high voltage and (3) ½-inch low voltage connections are located on the left corner of the unit.They are designed to accept conduit.

• Trane recommends that the condensate system (4) be set-up per negative pressure trapping in consideration of the unit's draw-through design. With this properly trapped system, when condensate forms during normal operation, the water level in the trap rises until there is a constant outflow.

• For acoustically sensitive areas, a ½-inch thick field provided vibration pad (5) should be installed below the vertical unit.This field provided piece should be equal to the overall footprint size of the unit to provide sound damping of the unit while in operation.

• Hose kits (6) are used to connect the water supply and return lines to the water inlet and outlets. Trane includes various hose kit combinations to better facilitate system flow balancing.These flexible hoses,

reduce vibration between the unit and the rigid piping system.

44 WSHP-SVX13C-EN

Page 45

Electrical Data

WARNING

Rotating Components!

Table 40. VSH* electrical data with ECM option

Model No. Unit Volts

208/60/1 10.2 9.2 1 0.97 1/2 1 12.47 20

VSH024

VSH033

VSH042

VSH050

VSH060

230/60/1 10.2 9.2 1 0.97 1/2 1 12.47 20 460/60/3 3.7 2.9 1 1.29 1/2 1 4.43 15 208/60/1 14.4 12.9 1 1.48 1/2 1 17.61 30 230/60/1 14.4 12.9 1 1.48 1/2 1 17.61 30 460/60/3 5.5 4.2 1 1.29 1/2 1 6.54 15 208/60/1 15.1 13.1 1 2.03 1 1 18.41 30 230/60/1 15.1 13.1 1 2.03 1 1 18.41 30 460/60/3 6.1 4.2 1 1.86 1 1 7.11 15 208/60/1 20.5 17.8 1 2.69 1 1 24.94 40 230/60/1 20.5 17.8 1 2.69 1 1 24.94 40 460/60/3 7.5 5.0 1 2.48 1 1 8.73 15 208/60/1 25.8 21.8 1 4.03 1 1 31.28 50 230/60/1 25.8 21.8 1 4.03 1 1 31.28 50 460/60/3 8.8 4.9 1 3.84 1 1 10.00 15

Total Unit

FLA

Comp RLA

(ea)

Table 41. VSV* electrical data with ECM option

Model No. Unit Volts

208/60/1 11.3 9.2 1 2.1 3/4 1 13.6 20

VSV024

VSV033

VSV042

VSV050

VSV060

230/60/1 11.3 9.2 1 2.1 3/4 1 13.6 20 460/60/3 4.9 2.9 1 2.0 3/4 1 5.6 15 208/60/1 15.7 12.9 1 2.8 3/4 1 18.9 30 230/60/1 15.7 12.9 1 2.8 3/4 1 18.9 30 460/60/3 6.9 4.2 1 2.7 3/4 1 8.0 15 208/60/1 17.7 13.1 1 4.6 1 1 20.9 30 230/60/1 17.7 13.1 1 4.6 1 1 20.9 20 460/60/3 8.2 4.2 1 4.0 1 1 9.3 15 208/60/1 24.8 17.8 1 7.0 1 1 29.3 45 230/60/1 24.8 17.8 1 7.0 1 1 29.3 45 460/60/3 11.6 5.0 1 6.6 1 1 13.25 15 208/60/1 25.8 21.8 1 4.03 1 1 31.28 50 230/60/1 25.8 21.8 1 4.03 1 1 31.28 50 460/60/3 8.8 4.9 1 3.84 1 1 10.00 15

Total Unit

FLA

Comp RLA

(ea)

No. of

Compressors

No. of

Compressors

Blower

Motor FLA

Blower

Motor FLA

Blower

Motor hp

Blower

Motor hp

Fan

Motor

Num.

Fan

Motor

Num.

Minimum

Circuit

Ampacity

Minimum

Circuit

Ampacity

Maximum

Overcurrent

Protective

Device

Maximum

Overcurrent

Protective

Device

WSHP-SVX13C-EN 45

Page 46

Electrical Data

Table 42. VSV* electrical data with plenum fan

Model No. Unit Volts

VSV*024 VSV*033 VSV*042 VSV*050 VSV*060

460/60/3 4.7 2.9 1 1.80 4 1 5.43 15 460/60/3 6.0 4.2 1 1.80 4 1 7.05 15 460/60/3 6.3 4.2 1 2.10 4 1 7.35 15 460/60/3 7.1 5.0 1 2.10 4 1 8.35 15 460/60/3 7.1 4.9 1 2.20 4 1 8.36 15

Total Unit

FLA

Comp RLA

(ea)

No. of

Compressors

Blower

Motor FLA

Blower

Motor hp

Fan

Motor

Num.

Minimum

Circuit

Ampacity

Maximum

Overcurrent

Protective

Device

46 WSHP-SVX13C-EN

Page 47

Variable-Speed WSHP Tracer™ UC400 Controller

I/O Definitions

Hard-wired input/outputs for the variable-speed WSHP UC400 controller are defined in Table 43, p. 47.

Table 43. UC400 hard wired input/output definitions

UC400

Connection type

Analog Inputs

Universal Inputs

Binary Inputs

Binary Outputs

(b)

(Relay)

Binary Outputs

(c)

(Triac)

Analog Outputs/ Binary Inputs

Communication

Pressure Inputs

(a) For more information on the UC400 connection specifications, refer to the UC400 installation sheet; Literature Order Number X39641064-01. (b) For Triac output control, 24VAC will be supplied to the Triac Supply input to be used for the Triac outputs. (c) 24 Vac will be connected to the binary outputs and the UC400 will provide a contact closure for output control.

terminal

AI1 AI2 Zone Setpoint 0-1000 Ω 40-115°F

AI3

AI4 Heat Sink Temperature Sensor 10 kΩ Thermistor -40-212°F

AI5 Entering Water Temperature Sensor 10 kΩ Thermistor -40-212°F

UI1 Relative Humidity Sensor 4–20 mA 0-100%RH

UI2 Leaving Water Temperature 10 kΩ Thermistor -40-212°F

BI1 Local Occupancy

BI2 Condensate Overflow

BI3

BO1 Supply Fan On/Off Control BO2 Isolation Valve Energized/De-Energized BO3 Compressor 1 Energized/De-Energized BO4 NA BO5 NA Energized/De-Energized BO6 NA Energized/De-Energized BO7 Reversing Valve Energized/De-Energized BO8 NA Energized/De-Energized BO9 NA Energized/De-Energized AO1/ BI4 Supply Fan Motor Control Signal PWM Output: 80Hz 0-100% Duty Cycle AO2/ BI5 Variable Speed Compressor Control Signal 0-10Vdc 0-100% Compressor Output IMC + NA Comm. NA IMC - NA Comm. NA LINK + BACnet Comm. + Comm. NA LINK - BACnet Comm. - Comm. NA

PI1 Test Mode Input

PI2 Feedback from Compressor VFD

Variable-speed WSHP

configuration

Zone Temp Sensor/Timed Override and Timed Override Cancel

Fan Mode (Control Auto/Off) AHRI Audit Test Mode Initiate

Compressor Protection Status – Discharge Line Thermostat/Low/High Pressure Cut Out/ Overload Relay Status

Connection

specifications

10 kΩ Thermistor -40-212°F

200-100 kΩ

24 Vac detect

2.88 A @24 Vac pilot duty

0.5 A max @24–277 Vac, resistive and pilot duty

3-Wire:+5Vdc, Signal, Gnd

(a)

Auto/Off Test Mode Active/Inactive

Normally Open Occ./Unocc

Normally Closed Okay/Failed

Energized/De-Energized

0Vdc/5Vdc (Normal/Test Mode Active)

0Vdc/5Vdc (Okay/Drive Disabled or Failed)

Valid range

WSHP-SVX13C-EN 47

Page 48

Variable-Speed WSHP Tracer™ UC400 Controller

UC400 Setpoints and Setup Parameters

The setpoints shown in Table 44, p. 48 are available for

modification through theTracer™TU Field ServiceTool if changes from the factory default values are required.

Table 44. UC400 setpoints

Input Name Selections Default

Default Setpoints

Space Temperature Setpoint Source

Unoccupied Cooling Setpoint 40°F to 115°F 85°F Unoccupied Heating Setpoint 40°F to 115°F 60°F Occupied Offset 0.9°F to 18°F 1.5°F Standby Offset 0.9°F to 18°F 7.5°F Space Temperature Setpoint Default 40 to 115°F 72.5°F

Setpoint Limits

Cooling Setpoint High Limit 40 to 115°F 110°F Cooling Setpoint Low Limit 40 to 115°F 40°F Heating Setpoint High Limit 40 to 115°F 105°F Heating Setpoint Low Limit 40 to 115°F 40°F Humidity Setpoint 40–100% 60%

BAS Local Source Default

Local Source

The setup parameters shown in Table 45, p. 48 are

available for modification through the Tracer™TU Field ServiceTool if changes are required

Note: Table 45, p. 48 indicates only product-specific

setup parameters and does not include standard

Tracer™TU parameters (for example, units of

measure).

Table 45. UC400 setup parameters

Input Name Range Default

Device

Occupancy Request Source Local Source/BAS Local Source Heat Cool Mode Request Source Local Source/BAS Local Source Emergency Override Command Source Local Source/BAS Local Source Space Temperature Source Local Source/BAS Local Source Space Humidity Source Local Source/BAS Local Source Entering Water Temperature Source Local Source/BAS Local Source

Supply Fan

(b)

(a)

Continuous

33%

Supply Fan Configuration Command

Enable Local Supply Fan Switch Control Enable/Disable Enable Supply Fan Speed Low Limit 33-100% Supply Fan Speed High Limit 75-110% 100% Filter Runtime Hours Enable Enable/Disable Enable Filter Runtime Hours Setpoint 0-10000 hours 600 hrs.

Bypass Time

Occupied Bypass Time

Humidity/Dehumidification

Space Dehumidification Setpoint Default 40-100% 60%

(a) Fan will cycle when unoccupied. (b) The minimum supply fan speed percent is dependent upon the maximum supply fan speed PWM percent. The maximum supply fan speed percent is

based on the user selected maximum and is the highest fan speed the unit will run: 100% Cool output.

(c)

Continuous Cycling with capacity

0-240 minutes 120 minutes

48 WSHP-SVX13C-EN

Page 49

Sequence of Operation

During normal operation, the compressor and supply fan outputs modulate to maintain the space temperature at the user-selected space temperature setpoint(s). Functions other than heating and cooling that are controlled by the variable-speed WSHP UC400 controller are described in this section.

Random StartTimer

At power-up, the UC400 controller will generate a random

timer (unique to each controller) from 5–30 seconds. During this time period, all unit functionality will be held off until the timer expires.

For unoccupied zone setpoints, the UC400 has default values for heating and cooling and they are adjustable throughTracer™TU.

When multiple setpoint sources are available (local and

BAS), the controller will use the following logic for determining which setpoint should be used for active control:

1. If a valid communicated setpoint value is present, the communicated value will be used for control.

2. If a valid communicated setpoint value is not present but a valid hard-wired setpoint value is present, the hard-wired value will be used for control.

3. If neither valid communicated or hard-wired setpoint values are present, the controller will use the default setpoints.

MaintenanceTimer

The UC400 controller will compare the amount of fan run

time against an adjustable filter runtime hours setpoint (stored in the controller) to determine when maintenance is recommended for the unit (check the filter status and other routine maintenance items as necessary). The filter runtime hours setpoint can be user-edited as required through theTracer™TU service tool.The valid range for the filter runtime hours setpoint is 0 to 10000 hours and the default value is 600 hours. If the user selects a setpoint of 0, the filter change required diagnostic is disabled.

Once the filter runtime hours setpoint has been exceeded, the controller generates a filter change required diagnostic.The user will be notified of this diagnostic in building automation system applications or through

Tracer™TU.

The filter change required diagnostic is cleared whenever

a filter timer reset request is communicated to the controller and the fan run hours has exceeded the fan run hours limit. At that point, the fan run time is reset (to zero) and the process starts over.

Setpoint Arbitration

Variable-speed WSHP units will require traditional zone

heating and cooling setpoints. These setpoints will be available locally through the UC400 or may be provided from a BAS.

The UC400 has provisions for a local zone setpoint input

with a range of 50-85°F which will be used in conjunction with the occupied and standby offsets (Default 1.5°F and

7.5°F, respectively).The local occupied zone setpoints will be calculated as follows depending on the occupancy status of the unit:

Cooling Setpoint = Space Temp Setpoint Default + (Occupied Offset or Standby Offset)

Heating Setpoint = Space Temp Setpoint Default— (Occupied Offset or Standby Offset)

Sensor Arbitration

The following sensor values can be provided to the UC400

via hard-wired inputs or through BACnet communication.

The controller will use a valid communicated value for unit

control, regardless of the status of the hard-wired input.

• SpaceTemperature

• Entering WaterTemperature

• Space Humidity

Occupancy Determination

The following standard occupancy modes and arbitration

are supported in the VSPD WSHP UC400:

MSV

occupancy

request

Unoccupied N/A

(a) MSV occupancy request is a communicated Occupancy Mode request

(a)

Occupied

Bypass

Standby N/A

Auto

from a BAS.

Occupied mode

When the controller is in occupied mode, the unit will

attempt to maintain the space temperature to the active occupied heating or cooling setpoint. Occupied mode is the default mode of the UC400 controller.

Local

occupancy

input

Occupied N/A Occupied

Unoccupied

Occupied N/A Occupied

Unoccupied

Occupied N/A Occupied

Unoccupied

Bypass

timer

Zero Standby

Not zero Bypass

Zero Standby

Not zero Bypass

Zero Unoccupied

Not zero Bypass

Zero Standby

Not zero Bypass

Zero Unoccupied

Not zero Bypass

MSV

occupancy

status

WSHP-SVX13C-EN 49

Page 50

Sequence of Operation

Unoccupied mode

When the controller is in Unoccupied mode, the unit will

attempt to maintain the space temperature at the stored unoccupied heating or cooling setpoint (configurable through the BAS or Tracer™TU).

Occupied Standby mode

The occupied standby mode allows the unit to operate at

a heating or cooling setpoint between the occupied and unoccupied setpoints (space temperature setpoint ± standby offset) to help maintain the space while decreasing energy consumption. Unit operation in this mode is identical to the occupied mode except for the different heating and cooling setpoints.

Occupied Bypass mode

The occupied bypass mode is used to transition the unit

from the unoccupied mode to the occupied mode for a period of time from 0 to 4 hours (configurable through

Tracer™TU).

The controller can be placed in occupied bypass mode by

either communicating an occupancy request of bypass or by using the timed override (for example, ON) functionality of the controller and applicable zone sensors:

Timed override operation

While the unit is operating in unoccupied mode, if the

timed override request button on the zone sensor is selected for 0.2 to 5 seconds, the unit will recognize this as a timed override request.This request is always accepted, but will only transition to occupied bypass mode if the controller was in unoccupied mode. Once initiated, the unit will enter occupied bypass mode for the duration of the occupancy bypass timer (default 120 minutes) or until the timed override request is cancelled.

While the unit is operating in occupied bypass mode, the

timed override operation can be cancelled by a timed override cancel request. This request is always accepted, but the unit will transition back to unoccupied mode only if the unit is currently operating in occupied bypass mode.

SomeTrane® zone sensors have ON and CANCEL buttons for timed override operation. Pressing the ON button on the zone sensor applies a direct short across the space temperature input, as described above, and when the unit is in unoccupied mode, initiates the occupied bypass mode.The CANCEL button applies 1.5 k across the space temperature input and is used to return a unit operating in occupied bypass mode back into Unoccupied mode before the occupancy bypass timer has expired.

Supply fan mode: Cycling

For active cooling, heating operation, the supply fan will be commanded ON and will ramp up to minimum speed once the unit determines that there is a request for cooling or heating operation. Once the control determines that there is no longer a capacity request, and the compressor output is OFF, the supply fan will be de-energized once any supply fan off delays have timed out. During the supply fan off delay, the supply fan will remain energized for the predetermined time at the previous unit function’s minimum speed.

Note: During heating only, there will be a 30 second

supply fan off delay.

Supply fan mode: ON

For active unit control with the supply fan mode set to continuous, the unit will energize the supply fan and hold the fan speed output at the active minimum speed until there is a request for the fan speed to increase. This will hold true for all cases except during Unoccupied periods in which the supply fan mode is forced to operate in cycling mode.

Zone sensor fan switch

The controller supports a fan switch selection that is

selectable by an applicable zone sensor module. When the fan switch is set to AUTO,the unit will utilize the configured supply fan mode (cycling or continuous) for supply fan output control and will operate heating, cooling, and dehumidification in order to meet the space demand.

When the fan switch is set to OFF, the unit will enter OFF

mode. All heating and cooling capacity will be deenergized after the associated minimum on timers expire, the isolation valve will be de-energized, and the supply fan will de-energize once any associated off delay timer has expired; no heating, cooling, or supply fan operation will be allowed when the fan switch is set to OFF.

If required, the user can enable/disable the zone sensor fan switch functionality through BAS or the Tracer™TU service tool. A fan mode can also be requested through BAS. If a requested fan mode is requested through BAS, the local setting is ignored.

Supply fan mode operation

Variable-speed WSHP units can be set up to have either

cycling or continuous fan mode operation.This feature is selectable throughTracer™TU or through a BAS as a communicated value.The default value for the supply fan mode is continuous.

50 WSHP-SVX13C-EN

Page 51

Sequence of Operation

Unit Mode Arbitration

are provided through the BAS, arbitration is used to determine the active mode as follows:

Manual mode determination

Any BAS request for AUTO mode or any other

enumeration for the heat cool mode request object that results in a system mode request of AUTO will result in the unit alternating between heating and cooling operation automatically as described in the auto-changeoversection (p. 51). If unit mode requests for modes other than AUTO

Refer to the Table 46, p. 51 to determine the unit operating mode based on communicated heat cool mode request values:

Note: If the local fan switch functionality is enabled and

the switch selection is set to OFF, the unit will be OFF regardless of the heat cool mode request from the BAS.

Table 46. Unit operating mode based on communicated value

Heat Cool Mode

Request

AUTO AUTO Mode determined by active setpoint/sensor values. HEAT HEAT Fan Operation and Heating Operation Allowed; no Cooling or Dehumidification. MORNING WARMUP HEAT Fan Operation and Heating Operation Allowed; no Cooling or Dehumidification.

COOLING COOL NIGHT PURGE AUTO Mode determined by active setpoint/sensor values. PRE-COOL COOL OFF OFF Fan, Cooling, Heating, and Dehumidification Operation disabled.

TEST AUTO Mode determined by active setpoint/sensor values. EMERGENCY HEAT HEAT Fan Operation and Heating Operation Allowed; no Cooling or Dehumidification. FAN ONLY FAN ONLY Fan Operation at Maximum Speed only; no Heating or Cooling available. FREE COOL AUTO Mode determined by active setpoint/sensor values. ICE-MAKING AUTO Mode determined by active setpoint/sensor values. MAX HEAT AUTO Mode determined by active setpoint/sensor values. ECONOMIZING AUTO Mode determined by active setpoint/sensor values. DEHUMIDIFY AUTO Mode determined by active setpoint/sensor values. CALIBRATE AUTO Mode determined by active setpoint/sensor values.

Effective Unit

Mode Operation Description

Fan Operation, Cooling Operation, Dehumidification Operation Allowed; no Heating Operation.

Auto-Changeover

When the effective unit mode is auto, the following auto-

changeover rules are used to determine the active unit mode:

At power-up, or after a unit reset, the active unit mode is

set to:

• Heat, if the active space temperature < the cooling setpoint

• Cool, if the active zone temperature > the cooling setpoint

If the active unit mode is cool, the active unit mode is switchedto heat when both of the following conditions are met:

• Active space temperature < the heating setpoint

• There is no longer a request for cooling

If the active unit mode is heat, the active unit mode is switchedto cool when both of the following conditions are met:

• Active zone temperature > cooling setpoint

• There is no longer a request for heating

WSHP-SVX13C-EN 51

Note: Once the controller determines that there is a need

to change the active unit mode, the compressor will not energize for the new mode until the compressor minimum off time has been met.

Isolation Valve Operation

For all units, the UC400 supports a two-position water isolation valve without needing any special configuration; by default, the UC400 will control as though isolation valves are present.

Isolation Valve “ON” Control

The isolation valve output will be energized prior to the

compressor (controlled open) during active compressor heating, cooling, dehumidification, and when forced open during manual output override testing.The water isolation valve will be driven open during all heating and cooling requests, even if the compressor output is not energized, such as during low load conditions when the compressor is operating in the duty cycle routine in order to achieve its minimum capacity.To reduce excessive cycling of the isolation valve, once opened, the isolation valve will remain open for a minimum of 10 minutes.

Page 52

Sequence of Operation

Entering water temperature (EWT) sampling

The controller will sample the entering water temperature

to determine proper control action for all units that utilize a hard-wired entering water temperature indication. If the entering water temperature is communicated to the controller via a BAS system, then no sampling will be required.When the EWT sampling function is invoked, the isolation valve output will be driven open for 3 minutes and the EWT reading is taken at that time.

EWT sampling will not occur automatically at power up, only when all of the following conditions are met:

• EWT is not communicated via BAS system

• There is a new request for compressor operation.

• The isolation valve is not OPEN.

• It has been more than an hour since the last time that the isolation valve was opened.

After the 3-minute EWT sampling time period expires, the

isolation valve will remain open for compressor operation.

Isolation Valve “OFF” Control

The isolation valve output will be de-energized (controlled

closed) when there is no longer a request for compressor operation and the 10minute minimum on time has expired or the manual output override test has driven it closed.

Demand Limit Operation

The controller supports a communicated request for

demand limiting operation of the compressor and supply fan outputs. Demand limiting operates as follows: If the point is placed into the active state, the unit limits the compressor capacity output to 50% for all unit modes (cooling and heating). During this period, the supply fan tracks the compressor as normal and is limited by the userselected minimum and maximum fan speeds. Demand limit requests do not override compressor startup and shutdown sequences or unit protection modes.

Reversing Valve Operation

For normal unit operation, the reversing valve output is energized when the unit is in cooling mode and deenergized in heating mode. Under normal operating modes, the reversing valve does not change states until the compressor is energized and reaches its startup speed.

Cooling and Heating Operation

For normal cooling and heating operation, the unit cooling or heating capacity will modulate and cycle based on a PI algorithm in order to meet the active space setpoint. The following fan and compressor actions are based on the required unit capacity:

• When no unit capacity is required, the compressor output(s) will be OFF.

• When the required unit capacity is less than the compressor can provide at its minimum speed, the unit will operate in a duty cycle schemebased on a required ON/OFF time in order to meet the space demand.

• When the required unit capacity is greater than the minimum capacity for the unit, the unit will operate the compressor and fan between minimum and maximum capacity in order to meet the space demand.

Unoccupied Cooling and Heating Operation

The unit will control the zone temperature to the active

unoccupied setpoints during unoccupied periods.

52 WSHP-SVX13C-EN

Page 53

Pre-Start Checklist

Before energizing the unit, the following system devices must be checked:

• Is the high voltage power supply correct and in accordance with the nameplate ratings?

• Is the field wiring and circuit protection the correct size?

• Is the low voltage control circuit wiring correct per the unit wiring diagram?

• Is the piping system clean/complete and correct?

• Is vibration isolation provided? (i.e. unit isolation pad, hose kits)

• Is unit serviceable? See “Clearance Dimensions,” p. 9.

• Are the low/high-side pressure temperature caps secure and in place?

• Are all the unit access panels secure and in place?

• Is the water flow established and circulating through all the units?

• Is the duct work correctly sized, run, taped, insulated and weather proofed with proper unit arrangement?

• Is the condensate line properly sized, run, trapped, pitched and primed?

• Is the zone sensor correctly wired and in a good location?

• Does the indoor blower turn freely without rubbing?

• Has all work been done in accordance with applicable local and national codes?

• Has heat transfer fluid been added in the proper mix to prevent freezing in closed system application?

WSHP-SVX13C-EN 53

Page 54

Start-Up

Note: Start-up with the heat pump zone sensor is

included below:

1. Cooling mode expectations: On the zone sensor, set the fan/system mode switch to the AUTO position.

2. Reduce the zone sensor setpoint until the compressor, reversing valve, solenoid valve, and loop pump are energized. Adjust water flow utilizing pressure/ temperature plugs and comparing to tables contained in specification sheet data.

Cool air should blow from the register. Water leaving the heat exchanger should be warmer than the entering water temperature (approximately 9-12ºF); blower operation should be smooth; compressor and blower amps should be within data plate ratings; the suction line should be cool with no frost observed on the refrigerant circuit.

3. Check the cooling refrigerant pressures against values in Table 49, p. 56.

4. Turn the zone sensor fan/system mode switch to the OFF position. Unit should stop running and the reversing valve should de-energize.

5. Leave unit off for approximately 5 minutes to allow for pressure equalization.

6. Turn the zone sensor setpoint to the highest setting.

7. Heating mode expectations: Set the zone system fan/ system mode switch to the AUTO position.

8. Wait until the unit energizes the Fan and Compressor for Heating operation. Warm air should blow from the register. A water temperature decrease of approximately 5-9ºF leaving the heat exchanger should be noted.The blower and compressor operation should be smooth with no frost observed on the refrigeration circuit.

9. Check the heating refrigerant pressures against values in Table 49, p. 56.

10. Set the zone sensor setpoint to the appropriate setting according to the application requirements. Note the Occupied Offset selection when determining the desired cooling and heating setpoints.

11. Instruct the owner on system operation.

Table 47. Checklist

MODE Heat Cool

Water coil heat exchanger

(Water Pressure OUT)

Pressure Differential _________PSIG _________PSIG

COMPRESSOR

Amps

Volts

Discharge line temperature

(after 10 minutes)

_________PSIG _________PSIG

_______F _______F

Operating Pressures

There are many variables (airflow, air temperatures) in an

air conditioning system that will affect operating refrigerant pressures and temperatures.The charts below shows approximate conditions and is based on air flow at the rated SCFM, entering air at 80°F(DB), 67°F(WB) in cooling, 68°F(DB) in heating. (+)Heating data with 35°F EWT is based on the use of an anti-freeze solution having a freezing point 20°F lower than the minimum expected entering temperature.

Table 47. Checklist

MODE Heat Cool

Entering fluid temperature _______F _______F

Leaving fluid temperature _______F _______F

Temperature differential _______F _______F

Return-air temperature DB/WB _______F _______F Supply-air temperature DB/WB _______F _______F

Temperature differential _______F _______F

Water coil heat exchanger

(Water Pressure IN)

54 WSHP-SVX13C-EN

_________PSIG _________PSIG

Page 55

Table 48. Operating pressures in cooling/heating -VSH

Cooling Heating

Entering

Water

Temp

Model No.

VSH024

VSH033

VSH042

VSH050

(°F)

35 5.0 — — — — 84-97 252-321 5-7 15-24 35 6.2 — — — — 84-97 253-321 4-6 15-24 45 5.0 125-144 166-212 12-15 19-25 98-113 266-338 7-8 19-26 45 6.2 125-144 161-204 10-12 19-25 99-114 267-340 5-7 18-28 55 5.0 127-146 189-241 12-15 18-24 116-134 281-358 8-10 21-31 55 6.2 127-146 183-233 9-12 18-24 118-136 282-359 6-8 22-31 65 5.0 131-151 216-275 11-14 18-24 130-149 291-370 9-11 24-34 65 6.2 131-151 210-267 9-12 18-24 132-152 294-374 7-9 25-35 75 5.0 133-153 250-318 11-14 18-24 150-173 309-394 10-13 28-38 75 6.2 133-153 243-309 9-11 18-24 154-177 311-396 8-10 28-39 85 5.0 136-157 287-365 11-14 17-23 173-199 327-416 11-14 31-42 85 6.2 136-156 279-355 9-11 17-23 178-205 331-422 9-12 32-43 95 5.0 138-159 327-416 11-13 17-23 — — — — 95 6.2 138-159 319-406 9-11 17-23 — — — — 35 6.9 — — — — 80-92 259-330 5-7 16-24 35 8.6 — — — — 80-93 259-330 4-5 16-25 45 6.9 124-142 172-219 11-15 19-25 96-110 271-345 6-8 20-27 45 8.6 123-142 166-211 9-12 19-25 97-111 272-346 5-6 19-28 55 6.9 124-142 194-247 11-15 19-24 114-131 287-365 7-9 22-31 55 8.6 124-142 188-239 9-12 19-24 115-133 289-368 6-7 22-32 65 6.9 125-144 221-281 11-14 18-24 126-145 302-384 8-10 25-35 65 8.6 125-144 214-273 9-12 18-24 128-148 304-386 7-9 25-35 75 6.9 127-146 255-324 11-14 18-24 147-169 321-408 9-12 28-39 75 8.6 127-146 248-315 9-11 18-24 150-173 323-411 8-10 29-39 85 6.9 129-148 292-371 11-14 17-23 169-195 342-436 11-13 32-43 85 8.6 128-148 284-362 9-11 17-23 174-200 345-439 9-11 33-44 95 6.9 131-150 332-423 11-13 17-23 — — — — 95 8.6 130-150 325-413 9-11 17-23 — — — — 35 8.4 — — — — 81-93 249-317 6-7 15-23 35 10.5 — — — — 82-95 251-319 5-6 14-24 45 8.4 109-125 160-203 12-15 17-23 96-111 259-329 7-9 18-26 45 10.5 109-125 154-196 10-12 17-23 98-113 261-333 5-7 18-27 55 8.4 126-145 185-236 12-15 17-23 112-129 271-345 8-10 20-30 55 10.5 126-145 179-228 9-12 17-23 115-132 272-347 6-8 21-30 65 8.4 133-153 215-273 11-15 18-24 130-150 282-359 9-11 23-33 65 10.5 133-153 208-264 9-12 18-24 133-154 285-363 7-9 24-34 75 8.4 134-155 248-315 11-14 18-24 151-174 298-379 10-13 26-36 75 10.5 134-154 240-306 9-11 18-24 156-179 302-384 8-11 27-37 85 8.4 137-158 283-361 11-14 17-23 175-201 316-402 11-14 29-40 85 10.5 137-158 276-351 9-11 17-23 180-208 320-407 9-12 30-41 95 8.4 139-160 323-411 11-13 16-22 — — — — 95 10.5 139-160 316-402 8-11 17-23 — — — — 35 10.2 — — — — 80-92 255-324 6-7 16-25 35 12.7 — — — — 81-94 256-326 5-6 16-26 45 10.2 126-145 164-208 12-15 15-21 94-108 265-337 7-9 20-27

continued on next page

Water

Flow

(GPM)

Suction

Pressure,

PSIG

Discharge

Pressure

(PSIG)

Water

Temp Rise

(°F)

Air Temp

Drop

°F (DB)

Suction

Pressure

(PSIG)

Discharge

Pressure

(PSIG)

Water

Temp

Drop (°F)

Start-Up

Air Temp

Rise

(°F DB)

WSHP-SVX13C-EN 55

Page 56

Start-Up

Table 48. Operating pressures in cooling/heating -VSH (continued)

Cooling Heating

Entering

Model No.

VSH050

VSH060

Water

Temp

(°F)

45 12.7 126-145 159-202 9-12 15-21 96-110 267-340 6-7 19-29 55 10.2 128-147 188-240 11-15 17-23 108-124 277-353 8-10 22-32 55 12.7 128-147 182-232 9-12 17-23 113-130 281-358 6-8 22-32 65 10.2 129-148 216-276 11-14 18-24 123-142 292-371 9-11 25-35 65 12.7 129-148 210-267 9-12 18-24 126-146 295-375 7-9 25-36 75 10.2 131-150 250-318 11-14 18-24 144-165 309-393 10-13 28-38 75 12.7 130-150 243-309 9-11 18-24 148-170 313-399 8-10 29-39 85 10.2 133-153 285-363 11-14 17-23 167-192 328-417 11-14 31-42 85 12.7 133-153 278-354 9-11 17-23 172-198 332-423 9-12 32-43 95 10.2 135-155 325-413 11-14 17-23 — — — — 95 12.7 135-155 317-404 9-11 17-23 — — — — 35 12.5 — — — — 82-95 271-345 6-7 19-28 35 15.6 — — — — 83-96 274-348 5-6 19-29 45 12.5 121-140 152-194 12-15 18-24 94-108 286-364 7-9 23-31 45 15.6 122-140 147-187 10-12 18-24 96-110 289-368 6-7 23-32 55 12.5 121-139 190-241 11-15 18-24 111-128 306-389 8-10 25-35 55 15.6 118-135 183-233 9-12 18-24 114-131 308-392 7-8 26-36 65 12.5 119-137 221-282 11-14 18-24 124-142 322-409 9-11 29-39 65 15.6 119-137 215-273 9-11 18-24 127-147 327-416 7-9 30-40 75 12.5 121-139 255-324 11-14 18-24 144-166 346-440 10-13 33-43 75 15.6 121-139 248-315 9-11 18-24 149-171 350-445 8-11 33-44 85 12.5 128-147 289-368 11-14 18-24 167-192 369-470 11-14 37-48 85 15.6 127-147 282-359 9-11 18-24 173-199 376-478 9-12 38-49 95 12.5 130-149 329-419 11-14 18-24 — — — — 95 15.6 129-149 322-409 9-11 18-24 — — — —

Water

Flow

(GPM)

Suction

Pressure,

PSIG

Discharge

Pressure

(PSIG)

Water

Temp Rise

(°F)

Air Temp

Drop

°F (DB)

Suction

Pressure

(PSIG)

Discharge

Pressure

(PSIG)

Water

Temp

Drop (°F)

Air Temp

Rise

(°F DB)

Table 49. Operating pressures in cooling/heating -VSV

Entering

Water

Temp

Model No.

VSV024

(°F)

35 — — — — — 83-95 258-328 5-6 14-23 35 45 45 55 55 65 65 75 75 85 85 95

continued on next page

56 WSHP-SVX13C-EN

Water

Flow

Suction

Pressure,

(GPM)

— — — — — 85-98 259-330 4-5 15-24

5.0 125-144 154-196 11-15 18-24 98-113 275-350 6-8 18-27

6.2 124-143 148-189 9-12 19-24 100-115 277-352 5-7 18-28

5.0 128-147 180-229 11-14 18-24 114-131 288-366 7-9 21-30

6.2 128-147 174-222 9-12 18-24 117-134 290-369 6-8 21-31

5.0 132-152 209-266 11-14 18-24 129-148 304-387 8-11 24-34

6.2 132-151 203-258 9-11 19-24 133-153 308-391 7-9 24-34

5.0 134-154 241-307 11-14 18-24 148-170 321-408 10-12 27-37

6.2 133-153 235-299 9-11 18-24 153-176 325-414 8-10 28-38

5.0 136-156 277-352 11-13 17-23 169-194 341-433 11-14 31-41

6.2 136-156 270-344 9-11 18-23 175-201 346-441 9-11 32-42

5.0 138-159 316-402 10-13 17-23 — — ——

Cooling Heating

PSIG

Discharge

Pressure

(PSIG)

Water

Temp Rise

(°F)

Air Temp

Drop

°F (DB)

Suction

Pressure

(PSIG)

Discharge

Pressure

(PSIG)

Water

Temp

Drop (°F)

Air Temp

Rise

(°F DB)

Page 57

Table 49. Operating pressures in cooling/heating -VSV (continued)

Cooling Heating

Entering

Water

Temp

Model No.

VSV024

VSV033

VSV042

VSV050

VSV060

(°F)

95 6.2 138-158 309-394 8-11 17-23 — — —— 35 — — — — — 79-91 267-339 5-7 15-24 35 — — — — — 81-94 268-341 4-5 16-25 45 6.6 116-133 159-202 12-15 22-20 94-108 283-360 6-8 19-28 45 8.3 115-133 154-196 9-12 18-24 96-110 285-363 5-7 19-28 55 6.6 120-138 186-236 12-15 18-24 110-126 297-378 7-9 22-31 55 8.3 120-138 180-229 9-12 18-24 113-130 300-381 6-8 22-32 65 6.6 124-143 214-273 12-15 18-24 126-145 317-404 8-11 25-35 65 8.3 124-143 208-265 9-12 18-24 130-150 321-409 7-9 26-36 75 6.6 126-145 247-314 11-14 18-24 146-168 337-429 10-12 28-39 75 8.3 126-145 241-306 9-11 18-24 151-173 342-435 8-10 29-40 85 6.6 129-149 282-359 11-14 17-23 167-192 359-457 11-14 32-43 85 8.3 129-149 276-351 9-11 18-24 173-199 365-465 9-11 33-44 95 6.6 132-151 322-409 11-14 17-23 — — —— 95 8.3 131-151 315-401 9-11 17-23 — — —— 35 — — — — — 83-95 260-330 5-7 14-23 35 — — — — — 84-97 261-332 4-5 15-23 45 8.7 126-144 154-196 12-15 19-25 98-112 276-352 7-8 18-27 45 10.9 125-144 149-189 10-12 19-25 100-115 278-354 5-7 18-28 55 8.7 129-148 180-230 12-15 19-25 115-133 291-371 8-10 21-31 55 10.9 128-148 175-223 9-12 19-25 118-136 293-373 6-8 22-31 65 8.7 133-153 210-267 11-14 19-24 131-151 309-394 9-11 24-34 65 10.9 133-152 204-260 9-12 19-25 135-155 313-398 7-9 25-35 75 8.7 134-155 242-308 11-14 18-24 150-172 326-415 10-13 28-38 75 10.9 134-154 236-300 9-11 18-24 155-178 331-421 8-11 28-39 85 8.7 137-158 277-352 11-14 18-24 170-196 346-441 11-14 31-42 85 10.9 137-157 270-344 9-11 18-24 176-203 352-448 9-12 32-43 95 8.7 139-160 315-401 11-14 17-23 — — —— 95 10.9 139-160 309-393 9-11 17-23 — — —— 35 — — — — — 81-93 273-348 6-7 16-25 35 — — — — — 83-95 275-350 5-6 17-26 45 10.4 117-134 154-196 11-15 18-24 95-109 294-375 7-9 20-30 45 13.0 117-134 151-192 9-12 18-24 98-112 296-377 6-7 21-30 55 10.4 122-140 182-231 11-15 18-24 111-127 309-394 8-10 23-33 55 13.0 121-140 177-225 9-12 18-24 114-131 313-398 6-8 24-34 65 10.4 128-147 211-268 11-14 18-24 126-145 330-420 9-12 27-37 65 13.0 128-147 205-261 9-12 19-24 130-150 334-426 7-10 28-38 75 10.4 130-149 243-309 11-14 18-24 145-167 351-446 10-13 31-41 75 13.0 129-149 237-302 9-11 18-24 151-173 357-454 9-11 32-42 85 10.4 132-152 278-354 11-14 18-24 167-192 375-477 12-15 35-46 85 13.0 132-152 272-346 9-11 18-24 173-199 383-487 10-12 36-47 95 10.4 134-154 317-403 11-13 17-23 — — —— 95 13.0 134-154 311-395 9-11 17-23 — — —— 35 12.5 — — — — 78-90 260-331 6-7 19-27 35 15.6

continued on next page

Water

Flow

(GPM)

Suction

Pressure,

PSIG

Discharge

Pressure

(PSIG)

— — — — 80-92 262-334 5-6 18-28

Water

Temp Rise

(°F)

Air Temp

Drop

°F (DB)

Suction

Pressure

(PSIG)

Discharge

Pressure

(PSIG)

Water

Temp

Drop (°F)

Start-Up

Air Temp

Rise

(°F DB)

WSHP-SVX13C-EN 57

Page 58

Start-Up

Table 49. Operating pressures in cooling/heating -VSV (continued)

Cooling Heating

Entering

Model No.

VSV060

Water

Temp

(°F)

45 12.5 119-137 158-201 12-15 16-22 94-108 277-353 7-9 23-30 45 15.6 116-133 153-194 9-12 16-22 97-111 279-355 6-7 22-32 55 12.5 125-144 190-242 12-15 20-26 111-128 296-377 8-10 25-35 55 15.6 122-140 184-234 9-12 20-26 115-132 299-380 7-8 26-36 65 12.5 127-147 220-280 12-15 20-25 131-151 311-396 9-12 29-39 65 15.6 127-146 213-271 9-12 20-25 135-156 315-401 7-10 30-40 75 12.5 129-149 253-322 11-14 19-25 152-175 335-426 10-13 33-44 75 15.6 129-149 246-313 9-12 19-25 158-181 339-432 8-11 34-45 85 12.5 133-153 288-367 11-14 19-25 175-202 361-459 12-15 37-48 85 15.6 133-153 281-357 9-11 19-25 182-210 366-466 10-12 38-50 95 12.5 135-155 328-417 11-14 18-24 95 15.6 135-155 320-407 9-11 18-24

Water

Flow

(GPM)

Suction

Pressure,

PSIG

Discharge

Pressure

(PSIG)

Water

Temp Rise

(°F)

Air Temp

Drop

°F (DB)

Suction

Pressure

(PSIG)

Discharge

Pressure

(PSIG)

— — —— — — ——

Water

Temp

Drop (°F)

Air Temp

Rise

(°F DB)

Water Pressure Drop

Table 52, p. 58 and Table 53, p. 58 should be used to define

feet of head/pressure drop. Note that the feet of pressure (ft/head) provided is at ARI/ISO standard.

To calculate feet of head, when using gauges that read in

PSIG, multiply PSI by 2.31.

Table 50. Cooling water pressure drops (WPD) in feet of

head - VSH

Model VSH EWT °F GPM Ft. Pressure

VSH024 85 6.2 3.5 VSH033 85 8.6 6.1 VSH042 85 10.5 3.0 VSH050 85 12.7 4.1 VSH060 85 15.6 5.7

Table 51. Heating water pressure drops (WPD) in feet of

head - VSH

Model VSH EWT °F GPM Ft. Pressure

VSH024 70 6.2 3.8 VSH033 70 8.6 6.5 VSH042 70 10.5 3.2 VSH050 70 12.7 4.4 VSH060 70 15.6 6.1

Table 52. Cooling water pressure drops (WPD) in feet of

head - VSV

Model VSV EWT °F GPM Ft. Pressure

VSV024 85 6.2 3.7 VSV033 85 8.3 6.2 VSV042 85 10.9 3.1 VSV050 85 13.0 4.2 VSV060 85 15.6 5.1

Table 53. Heating water pressure drops (WPD) in feet of

head - VSV

Model VSV EWT °F GPM Ft. Pressure

VSV024 70 6.2 4.0 VSV033 70 8.3 6.7 VSV042 70 10.9 3.5 VSV050 70 13.0 4.7 VSV060 70 15.6 5.4

Water Volume

Table 54, p. 58 and Table 55, p. 58 are provided for use in

calculating glycol requirements for the unit.

Table 54. Water volume - VSH

Model VSH VSH024 VSH033 VSH042 VSH050 VSH060

Internal water volume (in

Internal water volume (ft

Internal water volume (gal)

Table 55. Water volume - VSV

Model VSV VSV024 VSV033 VSV042 VSV050 VSV060

Internal water volume (in

Internal water volume (ft

Internal water volume (gal)

142.4 142.4 331.2 331.2 331.2

)

0.082 0.082 0.192 0.192 0.192

)

0.616 0.616 1.434 1.434 1.434

212 212 414 414 414

)

0.123 0.123 0.24 0.24 0.24

)

0.918 0.918 1.792 1.792 1.792

58 WSHP-SVX13C-EN

Page 59

Maintenance

scale.This service should be performed by an experienced service person.

Preventive Maintenance

Maintenance on the unit is simplified with the following preventive suggestions:

Filter maintenance must be performed to assure proper operation of the equipment. Filters should be inspected at least every three months, and replaced when it is evident they are dirty. Filter sizing is shown in Table 57, p. 59:

Table 56. Filter sizing for disposable filters -VSH

Size (60 Hz) Nominal Filter Size

VSH 024-033

VSH 042-060 20 inch x 25 inch 20 inch x 30 inch

Table 57. Filter sizing for disposable filters - VSV

Size (60 Hz) Nominal Filter Size

VSV 024-033 20 inch x 25 inch VSV 042-050 24 inch x 30 inch

VSV 060 (2) 20 inch x 30 inch

Table 58. Ducted filter rack assemblies

Unit Size

VSV060 L Back 4474-0156-0100 VSV060 R Front 4474-0156-0100 VSV060 L Front 4474-0157-0100 VSV060 R Back 4474-0157-0100

(a)No digit available

Unit Return

(Digit 16)

Orientation

16 inch x 20 inch 20 inch x 20 inch

Filter Rack

Opening

(a)

Filter Rack

Assembly

NOTICE

Proper WaterTreatment Required!

The use of untreated or improperly treated water in

coils could result in scaling, erosion, corrosion, algae or slime. It is recommended that the services of a qualified water treatment specialist be engaged to determine what water treatment, if any, is required.

Trane assumes no responsibility for equipment failures

which result from untreated or improperly treated water or saline or brackish water.

CondensateTrap

For units incorporating a negative trap design, ensure that the condensate system is primed with water at all times.

Allowing a negative, pressure condensate system to run

dry could cause a break in the condensate seal allowing the fan to draw water from the condensate line to spray moisture into the mechanical system. By maintaining a primed condensate trap, a seal will be created and will help prevent these complications. The condensate trap must be field installed.

Note: When maintenance is performed on this unit, care

should be taken not to damage the foil face insulation surfaces. If damage occurs repair damage with foil faced tape.

WARNING

Hazardous Voltage!

Check the contactors and relays within the control panel at least once a year. It is good practice to check the tightness of the various wiring connections within the control panel.

A strainer (60 mesh or greater) must be used on an open

loop system to keep debris from entering the unit heat exchanger and to ensure a clean system.

For units on well water, it is important to check the cleanliness of the water-to-refrigerant heat exchanger. Should it become contaminated with dirt and scaling as a result of bad water, the heat exchanger will have to be back flushed and cleaned with a chemical that will remove the

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Troubleshooting

WARNING

Hazardous Service Procedures!

The maintenance and troubleshooting procedures recommended in this section of the manual could result in

exposure to electrical, mechanical or other potential safety hazards. Always refer to the safety warnings provided throughout this manual concerning these procedures. When possible, disconnect all electrical power including remote disconnects before servicing.

Follow proper lockout/tagout procedures to ensure the power can not be inadvertently energized.When necessary to work with live electrical components, have a qualified licensed electrician or other individual who has been trained in handling live electrical components per these tasks. Failure to follow all of the recommended safety warnings provided, could result in death or serious injury.

General UnitTroubleshooting

Problem Heating Cooling Cause Correction

X X Main power off Check fuses

No response to any zone sensor setting

Unit short cycles X X Zone sensor improperly located Relocate

Blower runs but compressor does not

Insufficient capacity

High pressure switch open

X X Defective control transformer Replace X X Broken or loose connection Repair X X Defective zone sensor Replace X X Transformer Reset Transformer

X X Supply Voltage too low Correct X X Defective windings Replace X X Limit switches open Check cause/replace or repair X X Zones sensor error Check cause/replace or repair X X Compressor drive error Check cause/replace or repair X X Dirty filter Replace/clean X X Blower RPM too low Correct

X Introduction of excessively hot return air Correct

X Introduction of excessively cold return air Correct X X Low on refrigerant charge

X X Restricted thermal expansion valve Replace X X Zone sensor improperly located Relocate X X Unit undersized Recalculate heat gains/losses X X Inadequate water flow Increase GPM X X Scaling in heat exchanger Clean or replace

X Water too hot Decrease temperature X Water too cold Increase temperature X X Filter drier blocked Replace X X Defective reversing valve Check or replace

X Inadequate GPM Increase water flow to unit

X Water too hot Decrease temperature X Inadequate air flow Check, clean blower and coil X Dirty filter Clean/replace X X Overcharged with refrigerant Decrease charge X X Defective pressure switch Check or replace

Loss of conditioned air due to leaks in

ductwork

Repair leaks

Locate leak, repair and recharge by

weight (not by superheat)

Variable speed compressors sound different than single speed compressors. The compressor sound will change as the speed and operating conditions change.

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Troubleshooting

Problem Heating Cooling Cause Correction

X Trash in heat exchanger Backflush

X Low water flow Increase GPM X X Overcharge of refrigerant Decrease charge

High head pressure

Low suction pressure X X Undercharged Locate leak; repair and recharge

Low pressure switch open X Inadequate GPM Increase GPM

X X Non-condensable in system Evacuate and recharge by weight X X Water too hot Decrease temperature X Dirty filter Clean/replace X Inadequate air flow Check, clean blower and coil

X X Restricted thermal expansion valve Repair / replace

X Inadequate air flow Check, clean blower and coil

X Dirty filter Clean/replace X Inadequate GPM Increase GPM

X Water too cold Increase temperature

X Inadequate air flow Increase CFM

X Dirty filter Clean/replace X X Undercharged with refrigerant Increase charge X X Defective pressure switch Replace X X Heat transfer fluid too cold Raise water temperature

Compressor Drive

Troubleshooting

The variable-speed compressor drive includes internal

protection functions that limit the compressor operation, or in some cases, disable compressor operation

Table 59. DIP switch settings

Model Voltage SW1 SW2 SW3 SW4 SW5 SW6

208/60/1 OFF OFF OFF OFF OFF OFF

VSVE024/033

VSVE042/050/060

VSHE024/033

VSHE042/050/060

230/60/1 OFF OFF OFF OFF OFF OFF 460/60/3 OFF OFF OFF OFF OFF OFF 208/60/1 OFF OFF OFF OFF OFF ON 230/60/1 OFF OFF OFF OFF OFF ON 460/60/3 OFF OFF OFF OFF OFF ON 208/60/1 OFF OFF OFF OFF OFF OFF 230/60/1 OFF OFF OFF OFF OFF OFF 460/60/3 OFF OFF OFF OFF OFF OFF 208/60/1 OFF OFF OFF OFF OFF ON 230/60/1 OFF OFF OFF OFF OFF ON 460/60/3 OFF OFF OFF OFF OFF ON

completely.In an event occurs that causes the compressor operation to shut down, the compressor drive sends a binary signal to the VSPD WSHP UC400 controller and a diagnostic is generated. Refer to Table 59, p. 61 for the correct DIP switch settings for each unit.The DIP switches are located on the interface module located in the compressor drive assembly.

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Troubleshooting

Pressure transducer/controller

For units with the plenum fan option, gravity will affect the diaphragm and consequently the pressure measurement value of the pressure transducer/controller.

Note: This does not apply to units with the ECM fan/

motor option.

If the CFM control does not seem to be performing as expected, the pressure transducer/controller may need to be reset.This procedure will have been performed at the factory and generally will not be needed in the field.

To perform this procedure, the power on to the transducer

must be on but the pressure probe (tubing) must not be connected. Place the magnet at the marked location to permit the activation of a reed switch in the control electronics from the outside. This process will adjust the gravity effect to zero.The controller will display for a short time that the offset has been zeroed and saved.

Once this procedure is complete, attach the pressure tubing to the negative pressure port.

Figure 31. Pressure controller

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Control Wiring

Figure 32. 208V single-phase wiring with ECM option

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Control Wiring

Figure 33. 460V three-phase wiring with ECM option

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Figure 34. 460V three-phase wiring with plenum fan

Control Wiring

Notes: Unless otherwise noted, all switches are shown at 25°C (77°F), at atmospheric pressure, at 50% relative humidity, with all util ities turned off, and

after a normal shutdown has occurred. Dashed lines indicate recommended field wiring by others. Field writing to be rated for 600V. Dashed line enclosure and/or dashed device outlines indicate components provided by the field. Solid lines indicate wiring by the Trane company. Numbers along the right side of the schematic designate the location of the contacts by line number. All field wiring must be in accordance with the National Electric Code (NEC) and state and local requirements.

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Trane optimizes the performance of homes and buildings around the world. A business of Ingersoll Rand, the leader in

creating and sustaining safe, comfortable and energy efficient environments,Trane offers a broad portfolio of advanced controls and HVAC systems, comprehensive building services, and parts. For more information, visit www.Trane.com.

Trane has a policy of continuous product and product data improvement and reserves the right to change design and specifications without notice.

WSHP-SVX13C-EN 03 Jan 2015

Supersedes WSHP-SVX13B-EN (10 Feb 2013)

We are committed to using environmentally

conscious print practices that reduce waste.

Trane Axiom VSHE042, Axiom VSVE024, Axiom VSVE042, Axiom VSHE050, Axiom VSVE050 Operating And Maintenance

Specifications and Main Features

Frequently Asked Questions

User Manual