24 ups installation requirements

24U

PS IN

STA

LLAT

ION

REQ

UIR

EMEN

TS

24-1

Care should be taken to assure that the floor loading capacity is sufficient to support the UPS and batteries.Floor loading of UPS will vary based on the capacity and the type of the UPS.

Location

The UPS installation location should be chosen with

care.The type and amount of site preparation required will

vary according to the specific location and its relative

location to the connected load.Preferably the UPS has to

be installed close to the loads. If the distance between the

load and the UPS is higher, we must consider the voltage

drop based on the distance of the cable and suitable

action like oversizing the cable needs to be considered.

Floor Space Requirements

It is important that adequate floor space has to be

provided for the UPS.Check the dimensional information

on the appropriate data sheets for the floor space require-

ments. The UPS equipment can be mounted with the back

against a wall if rear access is not specifically required;

however, if side and rear access can be maintained, it may

be helpful should service become necessary. However,

the requirement of rear clearance will be based on the

construction of UPS.If the UPS is of modular construction

then a rear clearance is mandatory.

A clear area in front of the unit of at least 1meter should be

maintained for service personnel.

24-2

Required

Front Clearance

Rear Clearance

Side Clearance

Top Clearance

Top Throw

1000mm

200mm

200mm

1000mm

Rear Throw

1000mm

1000mm

400mm

400mm

UPS with Top Air �ow UPS with rear air �ow

UPSUPSor

other

Frontface

1000 mm1000 mm

400mm

UPSUPSor

other

Frontface

1000 mm

100mm

Refer the below table for minimum clearance

required

REQUIREMENTS FORUPS INSTALLATION

Figure 1-Typical Requirement of Clearance

© Copyrights Reserved

Most of the UPSs are designed for a maximum

operating temperature of 40°C. The losses ofthe UPS is dissipated as heat and the UPS room should have the ventilation arrangementto remove the heat to maintain the ambient

temperature below 40°C.The ventilation can bein the form of cross ventilation of hot & cold air(using air exchangers-inlet & exhaust fans withsuitable filters) or with air conditioner.

It is also possible to install a duct either on thetop side or the rear side of the UPS to suck outthe heat produced by the UPS.

In order to provide for adequate ventilation, theUPS should be installed in a room, which has at least 1000mm of clearance on the top side or the rear side of the UPS based on the ventilationtype. This area of UPS should be cleared of anyobstruction, which would impede air flow. Sincecooling air enters through a grill at the bottom front/front of the equipment, this area must alsobe kept clear of any obstructions.

Clearance Front Suction, Front Suction,

24-3

UPS systems are designed to operate at full load in an ambient temperature of 0-40°C (32-104°F); 0-95%

relative humidity; to altitudes of 1000m above mean sea level. However, as with all electronic equipment,

operating over a prolonged period of time at elevated temperatures may be detrimental to the extended life

of the equipment. In all probability, we would expect the normal temperature range to be between 25-35°C.

Some installations may require that equipment be designed to operate at 50°C (122°F) for periods of time

when normal cooling or ventilation has failed. High temperatures do have a negative effect on life of virtually

all electronic components. For maximum service life, plan the equipment room so that normal

operating temperatures are between 25-35°C. The UPS room should be relatively free of dust and dirt and

other airborne contaminates as heavy layers of dust will reduce the cooling efficiency of the electronic

components. It is important that the room low temperature control be adjusted to maintain the room

temperature above the dew point in order to prevent condensation of moisture on the UPS. Also in areas of

high humidity, UPS designed to operate under such conditions must be chosen or an adequate dehumidifer

or precision air conditioner must be deployed to maintain humidity.

Requirement of Air Conditioner for UPS

UPS system produces heat, which must be removed to prevent the UPS temperature from rising to an

unacceptable level. Selection of air conditioner for UPS room requires an understanding of the amount of

heat produced by the UPS. Heat is energy and is commonly expressed in Joules, BTU, tons, or calories.

common measures of heat output rate for equipment are BTU per hour, Tons per day, and Joules per second

(Joules per second is equal to Watts)


Power (KW) Constant Value Remarks

1KW 3412.14 BTU/Hr

1KW 3.567 Tonnage

To convert the heat loss in KW to

tonnage of AC, we need to divide the

KW by constant Value

1BTU/Hr 8.33333X 10 - 5 RT

RT - Refrigeration tonnage


BTU/Hr,we need to multiply KW with

BTU/Hr Constant Value

To convert the heat loss in KW to

Step 2: Arrive at the no of person who will work in the UPS room

Generally the UPS room is unmanned apart from the time when the technician visits to service the UPS or during the visit of maintenance engineer. It is ideal to consider 600 BTU/Hr per person to arrive at theair conditioner capacity of the UPS room.

Total Floor

Area in sq mBasic Cooling Capacity in BTU/Hr

9 -15 5000

15 - 23 6000

23 - 28 6500

28 - 33 7250

33 - 38 8000

38 - 41 8750

41 - 46 9650

46 - 51 10500

51 - 65 12500

65 - 93 15000

93-111 17700

111 - 149 19000 - 24000

149 - 167 24000 - 27000

167 - 260 27000 - 33000

24-4


The selection of UPS for air conditioner has to be calculated based on

• Area of the room

• Number of persons who may utilize the room

• Sources of heat generation

• Insulation of the room

Sizing of Air Conditioner

Step 1:

Multiply the length of UPS room by its width, which will gives us the total area of the room. Based on the

below table, the basic capacity in BTU/Hr required for the UPS room can be calculated


Step 3: Heat Loss of UPS

To arrive at the capacity of the air conditioner required for UPS, we need to calculate the heat loss ofUPS in KW using the formula

Heat Loss of UPS = heat loss of UPS in KW x 3412.14 BTU/Hr (in BTU/Hr)

As a thumb rule, 7% of the UPS capacity can be considered as heat loss which gives the thumb rule

formula of

Heat Loss in BTU/Hr = 7% x Capacity of UPS in KW X 3412.14 BTU/hr

Step 3: Insulation Loss

As a thumb rule, a 10% of insulation loss can be considered in the calculation

Sample Calculation - Capacity of Air Conditioner required for UPS Room

UPS capacity 200KVA

Area of UPS Room 9 sq m(3X3X3,WXDXH in m)

Heat loss of UPS 7%

Heat Loss of Other Loads 1%

No of Person in UPS Room 1

Insulation Loss 10%

Heat Loss of UPS = heat loss of UPS in KW x 3412.14 BTU/Hr (in BTU/Hr)

As a thumb rule, 7% of the UPS capacity can be considered as heat loss which gives the thumb rule

formula of

Heat Loss in BTU/Hr = 7% x Capacity of UPS in KW X 3412.14 BTU/hr

Step 3: Insulation Loss

As a thumb rule, a 10% of insulation loss can be considered in the calculation

Sample Calculation - Capacity of Air Conditioner required for UPS Room

UPS capacity 200KVA

Area of UPS Room 9 sq m(3X3X3,WXDXH in m)

Heat loss of UPS 7%

Heat Loss of Other Loads 1%

No of Person in UPS Room 1

Insulation Loss 10%

Heat Loss of UPS = Input Power in KW – Output Power in KW

(in KW)

Output Power in KW

= ------------------------------- - Output power in KW

Efficiency of UPS

Area of UPS Room 5,000 BTU From Step 1

Heat loss of UPS 47,770 BTU From Step 2

Heat Loss of Other Loads 6,824 BTU Assumption of 1% of UPS capacity

No of Person in UPS Room 600 BTU Assumption of 1 Person

Insulation Loss 5,500 BTU

/ Hr

/ Hr

/ Hr

/ Hr

/ Hr

65,694 BTU / Hr

Assumption of 10% of UPS,Other loads and person heat

Total

65 ,694 BTU /Hr

Air - Conditioner Required in Tr

Air - Conditioner Required in Tr

5.47 Tr

1 BTU/hr = 8.33333×10- RT

5

6 Tr

Required Airflow 2400 CFM

1Tr = 400CFM

24-5



5.47 Tr

6 Tr

2400 CFM

Required Airflow

Description Cooling Capacity in BTU/Hr

Remarks

Figure 2 Cross Ventillation of UPS Room

UPS with Top Air �ow

WARM AIR

COLD AIR

UPS with Rear Air �ow

WARM AIR

COLD AIR

Front face

From the above formula, we can derive at the No of Air exchanges required to arrive at the capacity of fans

required to remove the heat from the UPS room and to maintain a room temperature of less than 40°C.

The number of air exchanges can be calculated from the below formula,

ds = CFM x 60

CFM calulated was 2400 and room size was 27m3 (952.7ft3)(from previous example)

Sample Calculation - Air Exchanges Required for Forced Ventillation of UPS Room

In the event,UPS manufacturers is not specifying the need of an air conditioner, adequate care must be

taken to install inlet fans to bring in fresh air from outside the UPS room and exhaust fans to exhaust the hot

air from the UPS room.The fans must have the required CFM to ensure the required air changes and should

have filters to limit the dust in the UPS room.

Area of Room in Cubic ft x No of Air exchanges /hr

CFM = ------------------------------------------------------------------------------

60

24-6


The Fan arrangement & fan CFM must ensure 15 air exchange/hr in the room.


Figure 3 Typical Cable laying scheme

BatteryCables

LoadCables

MainsInput

CablesControlCables

CORRECT INSTALLATIONWITH PARTITIONING

BatteryCables

10 cmmini

10 cmmini

10 cmmini

LoadCables

MainsInput

CablesControlCables

ADMISSIBLE INSTALLATION WITHOUTPARTITIONING OF THE CONTROL CABLES

24-7


Cable Sizing & Installation

It is imperative to select and specify the correct type and

size of cabling in UPS installations. Failure to do so can

result in overheating, fire risk and premature failure. It is

also important to select the best method of installation

alongside the most optimum routing. The same cable sizes

should be installed for input and output and the selected

cable should provide continuous full thermal current rating.

A site survey will reveal the length of cable required and

what voltage drop should be catered within the project

specification and what size lugs are required.

General Guidelines for Cable Routing & Laying

Divide the power cables in groups like input cable, output

cable and battery cable and bunch them together. A min of

10 cm clearance has to be provided between the cable

groups as shown in the figure 3.

The control cables like UPS paralleling cable,

communication cables like BMS, SNMP,

battery monitoring, EPO needs to be grouped

together separately and has to be laid

separately to avoid any EMI/EMC issues.

The control cables should be in a separate

cable tray.

The cable tray for all cables has to be

earthed.

Cable Termination

The terminals for connecting the input, output

& battery cables are located on the bottom of

the UPS system and most UPS have bottom

cable entry provision.

Taking into consideration of the minimum area

availabe for cable entry and the bending

radius, it is ideal to use single core flexible

copper cables for terminating the input, output

and battery cables.

Figure 4 Termination of Cables with Single Core Flexible Cables


Electrical Protection

Electrical protection with breakers or SFU (Switch Fuse Units) are important in two aspects - To protect the other loads connected to the same distribution bus and to isolate the fault - To protect the cables connected between the source and the loads.

It is recommended to have breakers or SFU(Switch Fuse Units with semiconductor fuses) at the input of the UPS. Protection in form of MCCB/MCB/fuses can be used in the downstream circuit while an isolator can be used at the output of UPS.

It is also recommended to have a split mains, a dedicated input breaker for input of the rectifier and a dedicated input for the bypass mains. This could avoid single point of failure. (Figure 6)

24-8

Main Incommer

G

NC NO

Mains 2feeder

Sensitive feedersNon-Sensitive load

Mains 1feeder

Uninterruptiblepower supply

By pass

Figure 6 Typical Configuration of Dual Mains


Earthing

Earthing is very important for UPS as the fault current tends to flow through the earth back to mains to activate the protection system used in the circuit. Please refer Figures 8,9,10 on the earthing arrangement of the UPS.

In case of multiple UPS or parallel UPS configuration,all the UPS has to be connected together to the same earthing system.

Incase of usage of armoured aluminium cables, the

UPS system has to be installed on a elevated

platform to get the necessary cable bending radius.

Figure 5 Installing of UPS with Armoured Aluminium Cables


REQUIREMENTSFOR BATTERY INSTALLTION

Battery is the most unreliable component in the UPS and has

the risk of fire and explosion if they are not managed properly.

The most common battery used in UPS system is SMF VRLA

battery. These batteries produce Hydrogen gas during the

charging process and it combines with the oxygen inside the

battery to form water. This process is called recombination. But

however, under certain condition like overcharging of battery,

the Hydrogen gas escapes from the container though the

safety vents. If the Hydrogen content is more than 4%, then the

atmosphere becomes a combustible environment.

This has paved way for special considerations of battery

installation and is regulated as per IEEE – 1187

recommended practice for installation of valve regulated

Lead-acid batteries same as equivalent practice for wet cells.

Battery Room Consideration

Ideal recommendation is to have a separate room for installation of battery with the consideration

of the following points

Flame retardant doors

The electrical installation in battery rooms should be limited to:

Lighting

Ventilation

Smoke detectors may be installed in battery rooms along with hydrogen detectors. Fan operation

may be interlocked with hydrogen detector actuation and the same can also be linked with the

EPO of UPS system, so that in the event of hydrogen gas accumulation, the UPS can be switched off

and the charging process can be stopped.

The room ceiling should be flat to ensure that pockets of trapped Hydrogen gas do not occur,

particularly at the ceiling, to prevent the accumulation of an explosive mixture,

Light fittings should be fixed to the wall or suspended at more than 50 cm from the ceiling,

but not vertically above the batteries or charging units.

Light fittings as well as any other equipment should be of closed type to prevent accumulation of gas.

24-9


Battery Rack Consideration

Ideally battery is recommended to be installed in a

open rack rather than a closed cabinet as the

closed cabinet will have disadvantages like

Access for installation

Difficult to make and inspect

connections and check torque

Access for maintenance.

Difficult to access terminals to take

periodic readings.

Visual inspection is impossible.

Replacing defective battery blocks

can be extremely difficult.

Heat

Heat generated by nearby

equipment.

Heat buildup because of restricted

air flow

Heat generated within the battery

because of charging current

Personnel safety.

It can be plain dangerous

The purpose of ventilating a battery location or

enclosure is to maintain the hydrogen concentration

below the 4 %vol Hydrogen Lower Explosion Limit

(LEL) threshold. Battery locations and enclosures are

to be considered as safe from explosions, when

by natural or forced (artificial) ventilation the

concentration of hydrogen is kept below this safe

limit.

The minimum air flow rate for ventilation of a battery

location or compartment shall be calculated by the

following formula:

Q = v x q x s xn x IgasxCrtx 10-3 [m3 /h]

Where:

Q = ventilation air flow in m3 /h

v = necessary dilution of Hydrogen:

(100% -4%)/4% =24

q = 0.42x10-3 m3 /Ah generated Hydrogen

s = 5 , general safety factor

n = number of cells(2V)

Igas = current producing gas in mA per Ah rated

capacity for the float charge current Ifloat or the

boost charge current Iboost

Crt = capacity of the battery

Igas = 1 for VRLA Battery

Igas = 5 for Vented Battery

Igas = 5 for Ni-Cd Battery

24-10

Ventilation

Ventilation of the battery room is an critical point for

the safety of the installation. If there are not

proper ventilation then an accumulation of

hydrogen gas in the battery room could lead to fire

in the installation.

The ventilation requirement of VRLA battery is

defined in EN 50272-2.

REQUIREMENTSFOR BATTERY INSTALLATION


With v • q • s = 0,05 m3 /Ah the ventilation air flow

calculation formula is:

Q = 0,05 • n • Igas • Crt • 10-3 [m3/h]

The amount of ventilation air flow shall preferably

be ensured by natural ventilation, otherwise by

forced (artificial)ventilation. Battery rooms or

enclosures require an air inlet and an air outlet with

a minimum free area of opening calculated by the

following formula:

A = 28 • Q

with Q = ventilation flow rate of fresh air [m3 /h]

A = free area of opening in air inlet and outlet [cm2]

NOTE: For the purpose of this calculation, the air

velocity is assumed to be 0.1 m/s. The air inlet and

outlet shall be located at the best possible location

to create best conditions for exchange of air i.e,

exchange of air, i.e.

− openings on opposite walls,

− minimum separation distance of 2 m

when openings are on the same wall.

SMF VRLA battery are designed for an operating

temperature of 25-27°C, it is important to ensure

that same with proper sizing of air

conditioner to maintain the temperature in the

battery room.

The heat loss of the battery under normal float

conditions is too low, the air-conditioner has to be

sized based on the room area, latent heat and the

air exchanges required.

24-11


Sample Calculation

The sample calculation is based on the below

considerations

Battery capacity - 150AH

No of battery - 50 Nos of 12V Block

No of cells in each block - 6

Trickle current - 1mA/AH

Area of room - 4.25m2

Heat loss of the battery in float mode is calculated with

the voltage and trickle charging current

Heat loss of battery = V X Itrickle

Itrickle = 1mA/AH ie.for 100AH it is 10mA

The calculation is almost similar to that of the UPS

room.

Air exchanges required for Battery Room (Only for SMF

VRLA Battery)

The air conditioner for battery is designed based on

the heat loss during float conditions and the flow rate

of fresh air [m3 /h] required to limit the hydrogen

content in the atmospheric air to less than 4%.

The air exchanges required can be calculated using

the formula shown in Table 2

Description Cooling

Capacity in BTU/Hr

Remarks

Area of battery room 5,000 BTU/Hr From Step 1 Heat loss of battery 345 BTU / Hr 1mA/AHXNo of Cells X Voltage Heat Loss of other loads NA

No of persons in battery room 600 BTU / Hr Assumption of 1 Person Insulation loss 5,500 BTU/Hr Assumption of 10% Total 11,445 BTU / Hr Air conditioner required in Tr 0.95 Tr 1 BTU/hr = 8.33333×10-5 RT Air conditioner required in Tr 1 Tr


Sample Calculation 1: Required Airconditioner Capacity

24-12


Sample Calculation 2 Required Nos of Air exchanges in Battery Room

Description System rating:12 V,150 Ah

Charge voltage -2.250 2.28 V/cell

Gas emission rate while charging at the respective voltage & 250C

(CC/Ah/Cell/hr)

No. of cells in one set of the given battery system Cell capacity (Ah) Volume of hydrogen gas emitted from all the cells in 1 hr

(Cub.Mtr.)

0.09056

300

150

0.0041 Volume of hydrogen gas emitted from all the cells in a span of

24 hrs (Cub.Mtr.) 0.0978

Over all dimensions of battery Room

Length (mm)

Depth (mm)

Height (mm)

Volume (Cub.Mtr)

Required room / cabinet volume to maintain hydrogen

concentration < 1% (Cub.Mtr)

1500

2000

2500

7.5

9.9

Period after which the total air in the room is to be evacuated

One complete air change (Hrs)18.10

Description Ref for Calculation Formula

Gas emission rate while charging at the respective voltage & 25 deg. C (CC/Ah/Cell/hr)

C1 (0.1X9.056)/10

No. of cells in one set of the given battery system C2 No of 12V Battery X 6

Cell capacity (Ah) C3 Based on Site Volume of hydrogen gas emitted from all the cells in 1 hr (Cub.Mtr.) C4 C1XC2XC3

Volume of hydrogen gas emitted from all the cells in a span of 24 hrs (Cub.Mtr.) C5 C4X24

Over all dimensions of battery Room C6 - Length (mm) C6 Based on site - Depth (mm) C7 Based on site - Height (mm) C8 Based on site - Volume (Cub.Mtr) C9 C6XC7XC8 Required room / cabinet volume to maintain hydrogen concentration < 1% (Cub.Mtr) C10 C9+(C5/4%)

Period after which the total air in the room is to be evacuated one complete air charge (Hrs) C11 (C10X24)/C9

Table 2 Formula for Calulation required nos of Air exchanges in battery room


Battery Protection and Cable

The battery protection has to be installed close to

the battery, preferably in the battery rack or in a

separate enclosure close to the battery.

In case of multiple battery banks of used, it is ideal

to have a common isolator with fuse or an MCCB

and an individual battery isolator for each string of

battery

Figure 7 Typical Schematic of battery protection

BATTERYPROTECTION

24-13


UPS

Bypa

ss li

neIn

put

L1 L2

K5F4 F5 F6

L3 N PELo

addi

strib

utio

nL1

L2

L3 N

PE

X3

UPS

outp

ut

F7 F8 F9

L1 L2 L3

F1 F2 F3

L1 L2 L3 N

L1 L2 L3

X1K1

X4

Batt

ery

cabi

net

Rect

i�er

line

Inpu

t

Figu

re 8

Ear

thin

g ar

rang

emen

t of T

rans

form

erle

ss U

PS

(TN

S S

yste

m)

24-14

The diagram shown below, shows the earthing arrangement of an Transformerless UPS and its battery rack.


BATTERYPROTECTION

UPS

Bypa

ss li

neIn

put

L1 L2

K5F4 F5 F6

L3 N PELo

addi

strib

utio

nL1

L2

L3 N

PE

X3

UPS

outp

ut

F7

N L1 L2 L3

F22

F1 F2 F3

L1 L2 L3NL1 L2 L3

X1K1

X4

Batt

Batt

ery

cabi

net

Rect

i�er

line

Inpu

t

24-15

The diagram shown below, shows the earthing arrangement of an Transformerbased UPS with

bypass enabled and its battery rack


BATTERYPROTECTION

Figu

re 9

Ear

thin

g ar

rang

emen

t of U

PS

with

Inbu

ilt T

rans

form

er a

nd b

ypas

s E

nabl

ed(T

NS

Sys

tem

)

UPS

Bypa

ss li

ne

Dis

able

d

K5F4 F5 F6

Load

dist

ribut

ion

L1 L

2 L3

N P

E

X3

UPS

outp

ut

F7

N L1 L2 L3

F22

F1 F2 F3

L1 L2 L3NL1 L2 L3

X1K1

X4

Batt

Batt

ery

cabi

net

Rect

i�er

line

Inpu

t

Figu

re 1

0 E

arth

ing

arra

ngem

ent o

f UP

S w

ith In

built

Tra

nsfo

rmer

and

byp

ass

Dis

able

d(TN

S S

yste

m)

24-16

The diagram shown below, shows the earthing arrangement of an Transformerbased UPS and its Battery rack.

The UPS is acting as a seperately derived source as the bypass is disabled and the transformer neutral is earthed.


BATTERYPROTECTION

3

8

8

16

16

20

20

20

20

30

30

30

26

26

26

32

32

32

32

32

32

40

40

40

40

50

50

50

50

50

50

50

50

50

64

64

64

64

64

64

64

64

64

64

64

10 mins

18

18

18

18

26

18

26

42

65

18

26

42

18

26

42

42

65

75

100

120

150

26

42

65

75

75

100

120

150

200

2X120

2X120

2X200

3X150

26

42

65

65

65

100

120

150

200

2X120

2X160

18

18

18

18

26

18

26

65

75

18

42

65

26

26

42

65

65

100

120

150

200

42

65

75

100

100

120

150

200

2X120

2X150

2X150

3X150

3X200

42

65

65

75

100

120

150

200

2X120

2X150

2X200

20 mins

26

18

26

26

42

26

42

65

100

26

42

65

26

42

65

65

75

120

150

200

2X120

65

65

100

120

120

150

200

2X120

2X150

2X200

2X150

3X200

4X200

42

65

75

100

120

150

200

2X120

2X150

2X200

3X160

30 mins

26

26

42

42

65

26

42

75

120

26

65

100

42

65

65

75

100

150

200

2X120

2X130

65

75

120

150

150

200

2X120

2X150

2X200

3X150

2X200

4X200

4X200

65

65

100

120

150

200

2X130

2X150

2X200

3X200

3X200

45mins

42

26

42

42

65

42

65

100

150

42

65

120

42

65

75

100

120

200

60 mins

42

42

65

65

100

42

65

150

200

42

100

150

65

75

100

120

150

1KVA

2KVA

3KVA

6KVA

10KVA

6KVA

10KVA

20KVA

30KVA

10KVA

20KVA

30KVA

10KVA

15KVA

20KVA

30KVA

40KVA

60KVA

80KVA

100KVA

120KVA

30KVA

40KVA

60KVA

80KVA

100KVA

120KVA

160KVA

200KVA

250KVA

300KVA

400KVA

500KVA

600KVA

40KVA

60KVA

80KVA

100KVA

120KVA

160KVA

200KVA

250KVA

300KVA

400KVA

500KVA

Battery AHUPS Model KVA Rating No.Of battery

Finch

Gigamax

Falcon

Falcon 7000

15 mins

Note: The battery sizing is based on output Power factor of 0.8 with an cutoff Voltage of 10.5V/Battery This is only for reference and has no obligation of the company. The battery capacity can vary based on sizing considerations and battery make ageing factor & design margin are not considered in the battery sizing.

QUICK REFERENCEBATTERY SELECTION

24-17


AREA REQURIED FORUPS INSTALLATION

24-18

Width Depth Height Front Rear Side10 600 450 630 1000 750 200 1.76 96320 600 475 400 1000 750 200 1.78 982

30 300 210 110 1000 750 200 0.98 4603

40 680 260 200 1000 750 200 1.77 2036

60 710 260 500 1000 750 200 1.83 3900

30 500 450 400 1000 200 200 1.16 813

40 500 485 775 1000 200 200 1.18 813

60 1000 450 500 1000 200 200 1.98 1019

80 680 260 200 1000 200 200 1.28 1111

100 580 200 420 1000 200 200 1.09 1204

120 580 420 420 1000 200 200 1.26 1296

160 1000 450 500 1000 200 200 1.98 1389

200 950 400 800 1000 200 200 1.84 1296

250 950 450 1100 1000 200 200 1.90 1574

300 950 400 1100 1000 200 200 1.84 1574

10 800 800 1085 1000 750 200 2.55 391

20 800 800 1085 1000 750 200 2.55 422

30 800 800 1085 1000 750 200 2.55 422

40 800 800 1750 1000 750 200 2.55 547

60 800 800 1750 1000 750 200 2.55 1094

80 800 800 1750 1000 750 200 2.55 1172

100 840 900 1750 1000 750 200 2.76 1124

120 840 900 1750 1000 750 200 2.76 1124

160 1390 900 1750 1000 750 200 4.21 959

200 1390 900 1750 1000 750 200 4.21 1119

250 1650 900 1750 1000 750 200 4.90 1010

300 1650 900 1750 1000 750 200 4.90 1010

400 2100 900 1750 1000 750 200 6.10 952

500 2490 1000 1950 1000 750 200 7.40 884

600 2490 1000 1950 1000 750 200 7.40 1004

40 600 800 1300 1000 750 200 2.04 625

60 600 800 1300 1000 750 200 2.04 677

80 600 800 1300 1000 750 200 2.04 677

100 710 900 1400 1000 750 200 2.41 626

120 710 900 1400 1000 750 200 2.41 626

160 900 900 1750 1000 750 200 2.92 494

200 1000 900 1750 1000 750 200 3.18 944

250 1000 900 1750 1000 750 200 3.18 944

300 1520 900 1750 1000 750 200 4.56 768

400 1800 900 1750 1000 750 200 5.30 648

500 1800 900 1750 1000 750 200 5.30 802

Weight in Kg

Floor Loading of UPS in Kg/m2

Falcon 7000

Min Area Required forUPS Installation in m2

Falcon 5000

Falcon 3000

Falcon 8500

Model Capacity in KVA

Dimensions in mm Clearance Required in mm

325325550600650

700

1250

1400

1700

1700

250

270

270

350

700

750

850

850

1200

1400

1500

1500

1800

2200

2500

300

325

325

400

400

400

850

850

1050

1050

1300

720360290280260


AREA REQUIRED FORBATTERY RACK INSTALLATION

24-19

Floor Loading of

batteryWidth Depth Height Front Rear Side in Kg/m2

7.2 26 460 450 630 Quanta/Exide 1 750 - 500 1.15 96 46412 16/20 610 475 400 Quanta/Exide/Rocket 1 750 - 500 1.36 152 524

3 300 210 110 Quanta/Exide/Rocket 1 750 - 500 0.77 35 5488 680 260 200 Quanta/Exide/Rocket 1 750 - 500 1.19 82 46416 710 260 500 Quanta/Exide/Rocket 1 750 - 500 1.22 154 834

16/20 500 450 400 Quanta/Exide/Rocket 1 750 - 500 1.20 200 88926/30 500 485 775 Quanta/Exide/Rocket 1 750 - 500 1.24 200 825


16/20 1000 450 500 Quanta/Exide/Rocket 1 750 - 500 1.80 225 50126/30 950 400 800 Quanta/Exide/Rocket 1 750 - 500 1.67 310 81532/40 950 450 1100 Quanta/Exide/Rocket 1 750 - 500 1.74 413 967






32/34 1350 500 1650 Quanta 1 750 - 500 2.31 476 70540 1000 500 1250 Quanta 2 750 - 500 3.13 1120 112064 1350 500 1650 Quanta 2 750 - 500 4.00 1781 1320

16/20 1000 500 1250 Quanta 1 750 - 500 1.88 709 141816/20/25 1060 560 1650 Exide 1 750 - 500 2.04 874 1472

26/30 1150 500 1650 Quanta/Exide/Rocket 1 750 - 500 2.06 1015 176532/34 1350 500 1650 Quanta/Rocket 1 750 - 500 2.31 1156 171332/40 1000 500 1250 Quanta/Exide 2 750 - 500 3.13 1353 1353

50 1000 500 1625 Quanta 2 750 - 500 3.13 1686 168650 1060 560 1650 Exide 2 750 - 500 3.43 1668 140564 1350 500 1650 Quanta/Rocket 2 750 - 500 4.00 2113 1565

16/20 1000 500 1370 Quanta/Exide 1 750 - 500 1.88 775 155026/30 1000 500 990 Exide 2 750 - 500 3.13 1151 115132/40 1000 500 1370 Quanta/Exide 2 750 - 500 3.13 1507 1507

50 1000 500 1750 Quanta/Exide 2 750 - 500 3.13 1881 188164 1000 500 1370 Quanta/Exide 4 750 - 500 5.63 2393 1197

16/20 1000 550 1350 Quanta 1 750 - 500 1.95 892 162232/40 1000 550 1350 Quanta 2 750 - 500 3.25 1731 1574

50 1000 500 1750 Quanta 2 750 - 500 3.13 2150 215064 1000 550 1350 Quanta 4 750 - 500 5.85 2787 1267

16/20 1000 550 1300 Quanta/Exide 1 750 - 500 1.95 973 176916/20 1025 600 1775 Exide 1 750 - 500 2.06 950 154526/30 1200 550 1700 Quanta 1 750 - 500 2.21 1395 211432/40 1000 550 1300 Quanta/Exide 2 750 - 500 3.25 1861 169232/40 1025 600 1375 Exide 2 750 - 500 3.44 1899 1544

50 1000 550 1750 Quanta 2 750 - 500 3.25 2300 209150 1025 600 1775 Exide 2 750 - 500 3.44 2349 191064 1000 550 1300 Quanta 4 750 - 500 5.85 2928 133164 1025 600 1775 Exide 4 750 - 500 6.21 2950 1199

16/20 1000 550 1450 Quanta 1 750 - 500 1.95 1088 197726/30 1150 550 1850 Quanta 1 750 - 500 2.15 1412 223232/40 1000 550 1450 Quanta 2 750 - 500 3.25 1712 1556

50 1000 550 1875 Quanta 2 750 - 500 3.25 2660 241864 1000 550 1450 Quanta 4 750 - 500 5.85 3399 1545

16/20 1100 600 1400 Quanta 1 750 - 500 2.16 1320 200026/30 1300 600 1775 Quanta 1 750 - 500 2.43 1890 242326/30 1660 600 1700 Exide 1 750 - 500 2.92 1890 189832/40 1100 600 1400 Quanta 2 750 - 500 3.65 2510 190232/40 1100 600 1600 Rocket 2 750 - 500 3.65 2502 189632/40 1400 600 1235 Exide 2 750 - 500 4.46 2528 1505

50 1100 600 1775 Quanta 2 750 - 500 3.65 3110 235650 1400 600 1700 Exide 2 750 - 500 4.46 3120 185764 1100 600 1400 Quanta 4 750 - 500 6.62 3978 150764 1400 600 1325 Exide 4 750 - 500 8.24 3978 1184

Battery capacity(AH)

QtyClearance Required in mm

200

18

65/75

84

100

120

130

150

160

Weight in Kg

Min Area Required for battery

Installation in sq m

Dimensions in mm No of RacksMake

26

42


24 ups installation requirements

Documents