SCOPE OF WORK (ELECTRICAL) - CIDCO Maharashtra Ltd.

CIDCO OF MAHARASHTRA LTD 

C.A.No.03/CIDCO/EE(Elect)/2011-12 Sr. Page No. 

GENERAL 

SCOPE OF WORK (ELECTRICAL) 

The Scope of work consists of :- 

1.0 Planning, designing & execution of HT/LT Cable network as per direction 

of Engineer-in-Charge and as per Schedule ‘A’. 

2.0 The work includes:- 

a) Establishment of Distribution HT/LT network in various sectors. 

3.0 Providing & commissioning of : 

a) 11KV XLPE cable. 

b) L.T. Distribution network consisting of feeder pillars/minipillars 

(outdoor type) complete with L.T. underground XLPE armoured 

cable network upto consumer’s Electric meter room. 

c) All related allied works like trenching, earthing, safety equipments 

& obtaining statutory approvals. 

NOTE:All the equipments used shall be compatible with SCADA & the 

agency has to submit protocol & mapping drawings of equipments 

wherever applicable. All protocol shall be as per IEC Standard (e.g. 

for relay IEC 870-5-103) 

4.0 The entire electrical works should be carried out in accordance with the 

specifications without any extra cost. The work shall conform to latest 

edition of Indian Standard Specifications & Indian Electricity Rules. 

5.0 The works shall be completed as per the requirement of ISO:9002 & all 

required documents for the same shall be made available.



6.0 The Technical specification of all the equipment and the quantities 

required of various accessories & auxiliaries. The contractor shall also 

ascertain the quantities of items such as HT/LT cables, earthing material, 

supporting steel pipes etc. and procure the material as per requirement. 

Excess material brought to site & not installed shall not be accepted by 

CIDCO nor it will be paid for. 

7.0 Inspection: 

7.1 All equipment shall be offered for inspection. 

7.2 The inspection shall be carried out by CIDCO representative at any stage 

of manufacturing. The contractor shall give free access to the inspector at 

a reasonable notice. 

7.3 The equipment shall be offered for final inspection at least fifteen days in 

advance to enable CIDCO to witness the acceptance tests. 

7.4 No equipment shall be dispatched to site from the manufacturers work 

unless dispatch clearance certificate is issued by the inspecting authority 

of CIDCO. 

7.5 The contractor shall arrange for the inspection of the equipment by 

CIDCO representative & co-ordinate with them for timely dispatches at no 

extra cost to CIDCO, including traveling & boarding expenses. 

8.0 Documentation : 

8.1 The contractor on receipt of LOI shall submit five sets of relevant 

descriptive & illustrative literature and general arrangement, schematic 

drawings, foundation plans, and any other drawings and the general 

technical particulars of all the equipment to be supplied.



8.2 On completion of the above works, and commissioning, the contractor 

shall prepare a set of “as built drawings”, compile all the vendor drawings, 

shop test reports, inspection reports, site test reports, operation and 

maintenance literature of major equipments for handing over to CIDCO. 

This shall be compiled in four sets duly bound in a neat handy book. 

Separate comprehensive operation & maintenance manual should also be 

submitted in four sets. 

9.0 Supervision of Erection : 

The contractor shall arrange for a trained supervisor of respective 

equipment manufacturer during installation, testing & commissioning who 

will direct the sequence of erection, make necessary adjustments/ 

settings, make the equipment ready for testing, certify the pre- 

commissioning checks and give permission for commissioning. This shall 

be arranged by the contractor at no extra cost to CIDCO. 

10.0 The drawings given in the tender are indicative. The successful agency 

will have to make his own assessment before execution of work. 

GENERAL TECHNICAL SPECIFICATIONS 

1.0 INTRODUCTION : 

CIDCO is planning to provide power supply distribution infrastructure in 

Kharghar node with Hi-tech equipments for reliable power supply to the 

inhabitants of Kharghar node in Sector-25 to 45. 

2.0 This specifications given in brief the technical requirements for the 

installation, testing & commissioning of power supply distribution 

infrastructure at Kharghar node in Sector-25 to 45.



3.0 It is not the intent to specify herein all the details of design and 

construction of the equipment. However the equipment offered shall 

confirm in all respects to high standard of engineering design and 

workmanship. The installation of the infrastructure shall be executed in a 

neat manner and as per good engineering practices. The shop tests as 

well as pre-commissioning tests at site shall be conducted as per relevant 

IS and as per requirements of individual equipment as well as the set 

norms. 

4.0 The ratings, performance, testing at works, installation, testing at site, 

pre-commissioning checking and commissioning of all the equipment 

required shall conform to the latest revisions of all the relevant IS 

specifications. 

5.0 Site Conditions: 

All the equipments offered shall be suitable for following site conditions:- 

a) Maximum Temperature : 45 Deg. C 

b) Minimum Temperature : 6 Deg. C 

c) Design Ambient Temperature : 40 Deg. C 

d) Maximum Humidity : 96% 

e) Seismic Condition : As per IS 1893 

f) Atmosphere : Corrosive as found near as sea 

shore. 

5.1 The equipment to be supplied by the contractor shall be designed/ 

suitable for following supply system. 

5.1.1 Voltage stepped down to 11KV 

Voltage : 11 KV 

Frequency : 50 Hz 

Fault level : 350 MVA



5.1.2 415V / 240V AC supply shall have following voltage & frequency 

variation 

Voltage : + 6% 

Frequency : + 3% 

Fault level : 16 KA 

5.2 Construction power supply is not available at the site. The contractor 

shall make his own arrangement of power supply during construction 

works & for equipment testing, transformer filtration etc. 

5.2 Water connection is not available. The contractor shall arrange for water 

at his cost. 

_______________________ ______________________ 

Stamp and signature of 

Contractor 

Addl. Chief Engineer (II) 

Date : 

Date :



I) TECHNICAL SPECIFICATIONS FOR 11KV XLPE CABLE 

1.0 SCOPE 

1.1 This technical specification covers design, manufacture, testing at 

manufacturer’s works, packing & delivery of High Voltage Cross linked 

polyethylene insulated PVC Sheathed cables suitable for 11 KV. 

1.2 It is not the intent to specify completely herein all the details of design & 

construction of the cables. However the cables shall conform to high 

standards of engineering, design & workman ship. The equipment offered 

shall be complete with all components necessary for its effective and 

trouble free operation. 

2.0 STANDARDS 

2.1 unless otherwise specified elsewhere in its specification, the rating, 

performance and testing of cables & accessories shall conform to the 

latest revision of all relevant standards. 

2.2 A list of such standards is enclosed at ANNEXURE – I. 

3.0 PRINCIPAL PARAMETERS 

The high Voltage Cables and accessories covered in this specification shall 

meet the technical requirements listed at ANNEXURE – II and the 

following general technical requirement.



4.0 GENERAL TECHNICAL REQUIREMENT 

4.1 Conductor 

4.1.1 The conductor shall be made from electrically pure Aluminium wires. The 

wires shall be stranded together and compacted. 

4.1.2 The conductor shall be circular in shape. 

4.2 Conductor Shielding 

An extruded semi conducting compound shall be provided on the 

conductor to provide a smooth surface & eliminate electrical stress 

concentration. 

4.3 Insulation 

The core insulation shall be with Cross linked polyethylene unfilled 

insulation compound. It shall be free from voids and shall withstand all 

mechanical and thermal stresses under steady state & transient operating 

conditions. The insulation shall be applied by triple extrusion process. 

4.4 Insulation Shielding 

The insulation shielding shall consist of non-metallic semi-conducting 

compound in combination with non-metallic screening of copper. It shall 

be possible to strip the insulation screening without applying heat. The 

screen shall be capable to carry single line to ground fault current for a 

duration of one second. 

4.5 The conductor screen and XLPE insulation screen shall all be extruded in 

one operation by extrusion to ensure perfect bonding. 

4.6 Armouring 

G.I. Flat street wire armouring shall be provided over the inner sheath.



4.7 Outer Sheath 

An outer sheath shall be applied on the cable by extrusion over 

armouring. The outer sheath shall be of PVC compound confirming to 

Type ST2. The PVC compound shall be suitable for protection against 

rodent and termite attack. 

4.8 In addition to the above, binder tape, filler, core identification tape shall 

be provided. 

ANNEXURE-I 

11KV XLPE CABLE 

APPLICABLE STANDARDS 

The cables shall comply with the latest edition of the following standards: 

Sr. Indian Standard 

Title 

No. Spec. No. 

1. IS 7098 (Part-II) Cross-linked Polyethylene insulated PVC 

sheathed cables : Part II for working 

voltages form 3.3KV upto and including 

33KV. 

2. IS:8130 Conductors for insulated electric cables 

and flexible cords. 

3. IS:5831 PVC insulation and sheath of electrical 

cables.



Sr. Indian Standard 

Title 

No. Spec. No. 

4. IS:3975 Mild steel wires, strips and tapes for 

armouring of cables. 

5. IS:2633 Methods of testing weight, thickness and 

uniformity of coating on hot dipped 

galvanized articles. 

6. IS:209 Specification for Zinc 

7. IS:1753 Aluminium conductors for insulated cables. 

8. IEC:502 Extruded solid dielectric insulated power 

cables for rated voltages form 1KV upto 30 

KV. 

9. IEC:540 & 540A Test methods for insulation and sheaths of 

electric cables and cords. 

ANNEXURE-II 

11KV XLPE CABLES 

DESIRED TECHNICAL PARTICULARS 

Sr. Description Unit 11kV 

No. 

Particulars 

1. Cable Size Core x Sq.mm. 3C x 300 sq.mm. 

2. System Voltage kV 11 KV 

3. Type of cable XLPE Insulated 

4. Conductor material Aluminium 

5. Minimum No. of 

strands 

No. 30 

6. Nominal thickness of 

XLPE insulation 

mm 3.6 

7. Minimum thickness of 

common covering 

mm 0.7 

8. Armouring 4mm x 8 mm



Sr. 

No. 

Description Unit 11kV Particulars 

9. Minimum thickness of 

outer sheath 

mm 2.68 

10. Approximate overall 

diameter 

mm 81 

11. Approximate net 

weight 

kg/km 7260 

12. Normal Delivery Length m 250 

13. Max. DC Resistance at 

20 deg C 

Ohms/km 0.1 

14. Approximate AC 

Resistance 

Ohms/km 0.13 

15. Approximate reactance 

at 50 Hz. 

Ohms/km 0.095 

16. Approximate 

Capacitance per phase 

Mfd/km 0.475 

17. Current rating Amps 355 (in ground) 

440 (in air 

18. Short time current 

rating 

kA 28.2 

19. Permissible short 

circuit temperature 

Deg.C 250 

1.1 Earthing : 

1.1.1 Each Board, shall be provided with an earth busbar running along the 

entire length of the board. Material and size of the earth busbar shall be 

as specified. At either end of the earth bus, one (1) clamp type terminal 

with nuts, bolts and earthing conductor shall be provided for bolting 

Purchaser’s earthing conductor. In case the earth bus is provided near 

top of the Board, one down comer at either end shall be provided for 

connection to the Owner’s earthing conductor. 

1.1.2 Earth busbars shall be supported at suitable intervals.



1.1.3 Positive connection between all the frames of equipment mounted in the 

switchboard and earth busbar shall be provided by using insulated 

copper wires/bare busbars of cross section equal to that of the busbar. 

1.1.4 All instrument and relay cases shall be connected to the earth busbar 

using 1100/650V grade, 2.5 sq.mm. stranded copper earthing 

conductor. 

II) SPECIFICATIONS FOR EARTHING INSTALLATION 


The intent of this specification is to define the requirements for the 

supply, installation, testing and commissioning of the Earthing System. 

Note : The bidder shall have to design the earthing system required for 

the installation after measuring the soil resistivity & approvals. 

2.0 EARTHING CONDUCTOR/ELECTRODE : 

The main grid conductor shall be hot dip galvanized G.I. flat or PVC 

insulated aluminium conductor/copper conductor. Sizes for main 

conductors shall be marked on the drawings. Earth electrodes shall be as 

per IS standard. Thickness of hot dip galvanizing shall not be less than 75 

microns. 

3.0 EARTHING NETWORK: 

3.1 The entire earthing installation shall be done in accordance with the 

earthing drawings, specifications and the standard drawings of reference



attached with this document. The entire earthing system shall fully 

comply with the Indian Electricity Act and rules framed thereunder. The 

contractor shall carry out any changes desired by the Electrical Inspector 

or the owner, in order to make the installation confirm to the Indian 

Electricity Rules at no extra cost. The exact location of earth conductors, 

earth electrodes and earthing points on the equipment shall be 

determined in field, in consultation with the Engineer-in-charge or his 

authorized representative. Any changes in the methods, routing, size of 

conductors etc. shall be subject to approval of the Owner/ Engineer-in- 

charge before execution. 

3.2 Excavation and refilling of earth, necessary for laying underground earth 

bus loops shall be the responsibility of the contractor. 

3.3 The resistance between the earthing system and the general mass of 

earth shall be as per IS code of practice. The earth loop impendence to 

any point in the electrical system shall not be in excess of 5.0 ohm, in 

order to ensure satisfactory operation of protective devices. 

3.4 The main earth loop shall be laid at a depth of 300 mm below grade level. 

Wherever cable trenches are available, the earth lead shall be laid in the 

trenches and shall be firmly cleated to the walls or run of trays when run 

in concrete lines trenches. The earthing strip shall be protected against 

mechanical damage. 

3.5 In process unit areas, the earthing cable shall be run along cable trays 

wherever specified in the layout drawings. The earthing cable shall be 

suitably cleated and electrically bonded to the cable tray at regular 

intervals.



3.6 Joints and tappings in the main earth loop shall be made in such a way 

that reliable and good electrical connections are permanently ensured. All 

joints below grade shall be welded and suitably protected by giving two 

coats of bitumen and covering with hessian tape. All joints above ground 

shall be by means of connectors/lugs as far as practicable. Tee 

connectors shall be used for tapping, earth leads from the main earth loop 

wherever it is installed above ground. Where aluminium cable risers are 

to be connected to the underground GI earth bus, the aluminium cable 

riser shall be taken to the nearest earth pit and terminated through a 

bolted joint. If this is not practicable then a G.I. risers shall be brought 

above grade and a bolted joint shall be made between this GI riser shall 

be protected applying two coats of bituminous paint/bitumen on the 

exposed portion. 

3.7 Conduits in which cables have been installed shall be effectively bonded 

and earthed. Cable armoured shall be earthed at both ends. 

4.0 EARTHING ELECTRODES: 

4.1 Earth pipe electrodes shall be installed as shown in the earthing layout 

drawings and in accordance with the standard drawings of reference and 

IS:3043. Their location shall be marked to enable accurate location by 

permanent markers. 

4.2 All earth electrodes shall preferably be driven to a sufficient depth to 

reach permanently moist soil. Electrodes shall preferably be situated in a 

soil which has a fine texture and which is packed by watering and 

ramming as lightly as possible. Wherever practicable, the soil shall be dug 

up, all lumps broken and stones removed from the immediate vicinity of 

the electrode.



4.3 All earth electrodes shall be tested for earth resistance by means of 

standard earth test meter. The tests shall take place in dry months, 

preferably after a protracted dry spell. If necessary, a number of 

electrodes shall be connected in parallel to reduce the earth resistance. 

In such a case the distance between two electrodes shall not be less than 

twice the length of electrode. 

4.4 The electrodes shall have a clean surface, not covered by paint, enamel, 

grease or other materials of poor conductivity. 

4.5 The exact location and number of earth electrodes required at each 

location shall be determined in the field in consultation with the 

owner/Engineer-in-charge, depending on the soil strata and resistivity, to 

meet the ohmic values prescribed in clause 4.3. 

4.6 The disconnect facility shall be provided for the individual earth pits to 

check their earth resistance periodically. 

5.0 CONNECTION : 

5.1 All electrical equipment is to be doubly earthed by connecting two points 

on equipment to main earthing ring. The earthing ring will be connected 

via links to several earth electrodes. The cable armour will be earthed 

through the cable glands. 

5.2 The following shall be earthed. 

1. Transformer neutrals (Double Earthing). 

2. Transformer Housing. 

3. All switchgear and their earth buses.



4. Motor Frames. 

5. Non-current carrying metallic parts of electrical equipment such as 

switchgear, switch rocks, panel boards, motor control centers, 

lighting, power and instrument panels, push button stations, cable 

trays, pipes conduits, terminal boxes etc. 

6. All fences/enclosures housing electrical equipment. 

7. All still structures, rails etc. including bonding between sections. 

8. Shield Wire. 

9. Structural steel Columns of building etc. 

10. Loading racks. 

5.3 System shall be earthed by two distint conductors directly connected to 

independent earth electrodes which in turn, shall be connected to the 

earth loop. The earth connection shall be properly made. A small flexible 

aluminium cable loops to bridge the top cover of the transformer and the 

tank shall be provided to avoid earth fault current passing through 

fastening bolts when there is lightning surge, high voltage surge or failure 

of the bushings. 

5.4 Each Lightening Arrestor shall be connected to a separate electrode 

located as close as possible to it and within he fenced area for each set of 

arrestors shall be spaced such that they are all within the enclosing fence. 

Each of these electrodes shall be connected to the main earth grid. 

5.5 The shield wire shall be connected with the main grid solidly and net 

through supporting steel structures. 

5.6 All paint, scale and enamel shall be removed from the contact surface 

before the earthing connections are made.



5.7 All hardware used for earthing installation shall be hot dip galvanized for 

zinc passivated. Spring washers shall be used for all earthing connections 

of equipment having moving parts and for all the connections subject to 

vibrations etc. 

5.8 Lighting fixtures shall be earthes through the extra core provided in the 

lighting cable this purpose. 

6.0 TESTING 

Earthing system/connections shall be tested as follows: 

6.1 Resistance of individual electrodes shall be measured after disconnecting 

it from the grid. 

6.2 Earthing resistance of the grid shall be measured after connecting all the 

electrodes to the grid and generally the test value shall conform to 

IS:3043 code of practice unless otherwise specified. 

6.3 The resistance to earth shall be measured at the following: 

a) At each electrical system earth or system at the following. 

b) At each earth provided for structure lightning protections. 

c) At one point on each earthing system used to earth electrical 

equipment enclosures. 

d) At one point on each earthing system used to earth wiring system 

enclosures such as metal conduits and cable sheaths or armour. 

e) At one point on each fence enclosing electrical equipment.



Measurement shall be made before connection is made between 

the ground and the object to be grounded. 

IV) TECHNICAL SPECIFICATIONS FOR L.T. XLPE POWER 

CABLE 

1.0 GENERAL 

The cables shall be suitable for laying in racks, ducts, trenched, conduits 

and underground buried installation with uncontrolled back fill and 

chances of flooding by water. 

They shall be designed to withstand all mechanical electrical and thermal 

stresses under steady state and transient operating conditions. The XLPE 

cables shall withstand without damage a three-phase fault current of at 

least 26.2 kA for at least 0.5 second. The armour for these power cables 

shall be capable of carrying 26.2 kA for at least 0.5 second without 

exceeding the maximum allowable temperature of outer sheath. 

The XLPE insulated cables shall be capable of withstanding a conductor 

temperature of 250 degree C during a short circuit without any damage. 

The aluminium wires unsed for manufacturing the cables shall be true 

circular in shape before stranding and shall be uniformly good quality, free 

from defects. All aluminium used in the cables shall be of H2 grade. 

The fillers and inner sheath shall be of non- hygroscopic, fire retardant 

material, shall be softer then insulation and outer sheath shall be suitable 

for the operating temperatures of the cable. 

Progressive sequential marking of the length of cable in meters at every 

one meter shall be provided on the outer sheath of all cables.



The cable shall have outer sheath of a material with an oxygen index of 

not less than 29 and a temperature index of not less than 250 degree C. 

All the cables shall pass fire resistance test as per IS:1554 (part-1) 

Repaired cables shall not be accepted. 

Allowable tolerance on the overall diameter of the cables shall be plus or 

minus 2 mm. 

2.0 XLPE POWER CABLES 

The XLPE insulated cables shall be of FR type, C1 category conforming to 

IS:7098 (part-1) and its amendments read along with this specification. 

The conductor shall be stranded aluminium circular/sector shaped and 

compacted. In multicore cables, the core shall be identified by red, 

yellow, blue and black coloured strips or colouring of insulation. A distinct 

inner sheath shall be provided in all multicore cables. For XLPE cables, 

the inner sheath shall be of extruded PVC to type ST-2 of IS:5831. When 

armouring is specified for single core cables, the same shall consist of 

aluminium wires/strips. The outer sheath shall be extruded PVC to Type 

ST-2 of IS:5831 for all XLPE cables. 

3.0 CABLE DRUMS : 

Cable shall be supplied non-returnable wooden or steel drums of heavy 

construction. Wooden drum shall be properly seasoned, sound and free 

from defects. Wood preservative shall be applied to the entire drum. 

Standard lengths for each size of power and control cables shall be 

500/1000 metres (LT cables). The cable length per drum shall be subject 

to a tolerance of plus or minus 5% of the standard drum length. The 

owner shall have the option of rejecting cable drums with shorter lengths. 

However, the total quantity of cables after taking into consideration of all



cable drums for each size shall be within the tolerance of plus or minus 

2%. 

A layer of water proof paper shall be applied to the surface of the drums 

and over the outermost cable layer. 

A clear space of at least 40 mm shall be left between the cables and the 

lagging. 

Each drum shall carry the manufacturer’s name, the purchaser’s name, 

address and contact number and type, size and length of the cable, net 

and gross weight stenciled on the both sides of drum. A tag containing 

the same information shall be attached to the leading end of the cable. 

An arrow and suitable accompanying wording shall be marked on one end 

of the reel indicating the direction in which is should be rolled. 

Packing shall be sturdy and adequate to protect the cables, from any 

injury due to mishandling or other conditions encountered during 

transportation, handling and storage. Both cable ends shall be sealed 

with PVC/Rubber caps so as to eliminate ingress of water during 

transportation and erection. 

4.0 TESTS 

All cables shall conform to all type, routine and acceptance tests listed in 

the relevant IS. 

All power cables shall meet the requirements of the following additional 

test and type test may be conducted to prove their capabilities. 

1. Short time current test of conductors. 

2. Short time current test on armours.



V SPECIFICATIONS FOR CABLE LAYING 


This is to define the requirements for the installation, testing and 

commissioning of the cabling system. 

2.0 CABLE SPECIFICATIONS 

2.1 Power Cables 

Power cables for use on 415V system shall be of 1100 Volts grade, 

aluminium conductor, XLPE insulated, PVC sheathed single wire armoured 

and overall PVC sheathed. Power cables for HV system shall be 

aluminium conductor, XLPE insulted screened, PVC bedded galvanized 

steel flat armoured and PVC sheathed cable. 

All L.T. cables conform to the relevant sections of IS:1554 Part-I and H.T. 

cables shall conform to IS:7098 (Part-II). 

Unarmoured cables will be used wherever specified on the cable schedule. 

3.0 MISCELLANEOUS MATERIALS 

3.1 Connectors 

Cable terminations shall be made with aluminium crimped type solderless 

lugs of M/s Dowells make or approved equivalent for all aluminium 

conductors and stud type terminals. 

3.2 Cable Identification 

Cable tags shall be of 2 mm thick aluminium strap of suitable size to 

contain cable number, equipment number etc. 

3.3 Ferrules



Ferrules shall be of self sticking type and shall be employher to designate 

the various cores of control cable by the terminal numbers to which the 

cores are connected for ease in identification and maintenance. 

3.4 Cable Glands 

Cable glands to be supplied shall be brass single/double compression type 

as per the directions of Engineer-in-charge. Generally single compression 

type cable glands shall be used for indoor protected locations and double 

compression type shall be used for outdoor locations. 

3.5 Cable Trays 

Prefabricated hot dip galvanized sheet steel cable trays shall be used for 

maximum support span of 2000 mm unless design is approved for larger 

span. For requirements of larger than 750 mm width two trays shall be 

run side by side. Cable trays shall be suitable for a cable weight of 50 

kg/m running length of tray. Minimum thickness of sheet steel/galvanized 

shall be 3 mm/86 micorns. Cable trays fabricated from standard rolled 

sections shall used 50 x 50 x 6 /ISMC 100 sections for runners for 

supporting spans limited to 2000 mm/more than 2000 mm respectively. 

Cross support shall be 32 x 6 mm flat 25 x 25 x 6 mm angle for widths 

upt o500 mm/ more than 500 mm respectively. If unit rate not included 

in schedule of rates then cable trays if required shall be 

fabricated/installed at site as per the per tonne rate for electrical 

structural supports etc. 

4.0 CABLE LAYING 

4.1 Cable network shall include power, control lighting cables, which shall be 

laid in trenches, cable trays or conduits as detailed in the relevant 

drawings and cable schedules. Erection of cable trays as required shall be 

the responsibility of the contractor. Cable routing shall be checked in the



filed to avoid interference with structures, piping or air-conditioning duct 

and minor adjustments shall be done to suit the filed conditions wherever 

deemed necessary without any extra cost. 

4.2 High voltage, medium voltage and other control and communication 

cables shall be separated from each other by adequate spacing or running 

through independent pipes, trenches or cable trays, as applicable. 

4.3 All cable routes shall be carefully measured and cables cut to the required 

lengths, leaving sufficient lengths for the final connection of the cable to 

the terminal of the equipment. The various cable lengths cut form the 

cable reels shall be carefully selected to prevent undue wastage of cables. 

The quantity indicated in the cable schedule is only approximate. The 

contractor shall ascertain the exact requirement of cable for a particular 

feeder by measuring at site and avoiding interference with structure, 

foundation, pipelines or any other works. 

4.4 Cables as far as possible shall be laid in complete, uncut lengths from one 

termination to the other. 

4.5 Cables shall be neatly arranged in the trenches/trays in such manner so 

that criss-crossing is avoided and final take off to the motor/switchgear is 

facilitated. Arrangement of cables within the trench/trays shall be the 

responsibility of the contractor. 

4.6 All cables will be identified close to their termination point by cable 

numbers as per cable schedule. Cable numbers will be punched on 

aluminium straps (2 mm thick) securely fastened to the cable and srapped 

around it. Alternatively cable tags shall be circular in construction to 

which cable numbers can be conveniently punched. Each underground 

cable shall be provided with identify tags of lead securely fastened every



30 m of its underground length with atleast one tag at each end before 

the cable enters the ground. In unpaved areas, cable trenches shall be 

identified by means of markers as per standard drawing. These posts 

shall be placed at location of changers in the direction of cables and at 

intervals of not more than 30 m and at cable joint locations. 

4.7 All temporary ends of cables must be protected against dirt and moisture 

to prevent damage to the insulation. For this purpose, ends of all PVC 

insulated cables shall be taped with an approved PVC or rubber insulating 

tape. Use of friction type or other fabric type tape is not permitted. Lead 

sheathed cables shall be plumbed with lead olloy. 

4.8 RCC cable trenches with insert plates shall be provided by the contractor. 

Cable shall be laid in 3 to 4 tiers in these trenches. 

4.9 Directly buried cables shall be laid underground in excavated cable 

trenches where specified and layout drawings. Trenches shall be of 

minimum 0.9 mtr. depth and suitable width for accommodation of all 

cables correctly spaced and arranged with a view of heat dissipation and 

economy of design. Depth of burying shall allow minimum 900 mm soil 

cover for low voltage and 1000 mm for 11KV cables. 

L.T. cables shall be laid in trenches as above stated depth. Before cables 

are placed, the trenches bottom shall be filled with layer of sand. This 

sand shall be leveled and the cables laid over it. The cables shall be 

covered with 150 mm of sand on top of the largest diameter cable and 

sand shall be lightly pressed. A protective covering of 75 mm thick 

second class red bricks shall then be laid flat. The remainder of the 

trench shall then be back-filled with soil, rammed and leveled.



As each row of cables is laid in place and before covering with sand every 

cables shall be given an insulation test in the presence of Engineer-in- 

charge/Owner. Any cable which proves defective shall be replaced before 

the next group of cables are laid. 

All wall openings shall be effectively sealed after installation of cables to 

avoid leakage of water. 

4.10 Where cables rise from trenches to motor, control, station, lighting panels 

etc., they shall be taken in G.I. pipes for mechanical protection upto a 

minimum of 300 mm acboe grade or as shown in the standard drawings. 

Cable ends shall be carefully pulled through the conduits to prevent 

damge to the cable. Where required, approved cable lubricant shall be 

used for this purpose. Where cable enters conduit the cable should be 

bent in large radius. Radius shall not be less than the recommended 

bending radius of the cables specified by the manufacturer. 

Following guide of the pipe fill shall be used for sizing the pipe size:- 

a) 1 Cable in pipe : 53% full 

b) 2 Cables in pipe : 31% full 

c) 3 or more cables : 43% full 

d) Multiple cables : 40 % full. 

After the cables are installed and all testing is complete, conduit ends 

above grade shall be plugged with a suitable weatherproof plastic 

compound/PUTTI for sealing purpose. Alternatively G.I. Lids or PVC 

bushes shall be employed for sealing purposes. The cost for the same 

shall be deemed to have been included in the installation of G.I. pipe and 

no separate payment shall be done.



4.11 Where cables pass through foundation wall or other underground 

structures, the necessary ducts or openings will be provided in advance 

for the same. However, should it become necessary to cut holes in 

existing foundations or structures the electrical contractor shall etermine 

their location and obtain approval of the Engineer-in-charge before cutting 

is done. 

4.12 At road crossing and other places where cable enter pipe sleeves 

adequate bed of sand shall be given so that the cables do not slack and 

get damaged by pipe ends after back filling. 

4.13 Drum number of each cable from which it is taken shall be recorded 

alongwith the cable number in the cable schedule. 

4.14 Cables installed above grade shall be run in trays, exposed on walls, 

ceilings or structures and shall be run parallel or at right angles to beams, 

walls or columns. 

Cables shall be so routed that they will not be subjected to heat from 

adjacent hot piping or vessels. 

4.15 Individual cables or small groups which run along structures/walls etc. will 

be clamped by meas of 16 SWG GI saddles on 25 x 6 mm saddle bars. 

The cost of saddle and saddle bars shall be deemed to have been included 

in the installation of cables and no separate payment shall be made on 

this account. 

They shall be rightly supported on structural steel masonry, individual or 

in groups as required, if drilling of steel must be resorted to, approval 

must be secured and steel must be drilled where the minimum weakening 

of the structure will result.



Cables shall be supported so as to prevent unsightly sagging, in general 

distance between supports shall be approximately 300 mm for cables upto 

25 mm diameter and maximum 450 mm for cables larger than 25 mm dia. 

4.16 All G.I. pipes shall be laid as per site requirements. Before fabrication of 

various profiles of pipe by hydraulically operated, bending machine (which 

is to be arranged by the contractor), all the bars from the pipes shall be 

removed. G.I. pipes buries in soil, bitumen coating shall be applied on the 

buried lengths. Installation of G.I. pipes shall be undertaken well before 

paving is completed and necessary co-ordination will paving agency shall 

be the responsibility of Electrical contractor. The open ends of pipes shall 

be suitably plugged with G.I. plugs after they are laid in final position G.I. 

plugs shall be supplied by the contractor at no extra cost. 

4.17 Cable laid on supporting angle in cable trenches, structures, columns and 

vertical run of cable trays shall be suitably clamped by means of G.I. 

saddles/clamps, whereas cable in horizontal run of cable trays shall be 

tied by means of nylon cords. 

4.18 Supporting steel shall be painted before laying of cables. The painting 

shall be done with one coat of red lead paint and two coats of approved 

bituminous alluminium paint. 

5.0 TERMINATION: 

5.1 All PVC cables upto 1.1KV grade shall be terminated at the equipments by 

means of compression type cable lugs of aluminium. They shall have a 

gland of screwed nipple with conduit electrical threads and check nut.



5.2 Power cables shall be identified with red, yellow and blus PVC tapes. 

Where copper to aluminium connections are made, necessary bimetallic 

washers shall be used. For trip circuit identification additional red ferrules 

shall be used only in the particular cores of control cables at the 

termination points in the switchgear/control panels and control switches. 

5.3 In case of control cables all cores shall be identified at both ends by their 

terminal numbers by means of PVC ferrules, or self sticking cable 

markers. Wire numbers shall be as per schematic/wiring/inter-connection 

diagram. Bidders shall have the samples of PVC ferrules/cable markers 

approved before starting the work. 

5.4 Where threaded cable gland is screwed into threaded opening of different 

size, suitable galvanized threaded reducing bushing shall be used of 

approved type, at no extra cost. 

5.5 The cable shall be through glands inside the panels or any other electrical 

equipment such as motors. The individual cores shall then be dressed 

and taken along the cable ways (if provided) or shall be fixed to the 

panels with polyethylene straps. Only control cables of single strand and 

lighting cables may be directly terminated on the terminals. 

In case of termination of cables at the bottom of a panel over a cable 

trench having no access from the bottom close fit hole should be drilled in 

the bottom plate for all the cables in one line, then bottom plate should 

be split in two parts along the center line of holes. After installation of 

bottom plate and cables it should be sealed with cold setting compound. 

Cables shall be clamped over the open armouring to connect it to earth 

bus.



5.6 Cable leads shall be terminated at the equipment terminals, by means of 

crimped type solderless connectors as manufactured by M/s. Dowell 

Electro Works or approved equivalent. 

Crimping shall be done by hand crimping/hydraulically operated tool and 

conducting jelly shall be applied on the conductor. Insulation of the leads 

should be removed immediately before the crimping. Conductor surface 

shall be cleaned and shall not be left open. 

5.7 11, 6.6 and 3.3 KV cables terminations/joints shall be done byu skilled and 

experienced jointers duly approved by the owner, if included in the 

contract. 

6.0 TESTING 

6.1 Before energizing, the insulation resistance of every circuit shall be 

measured from phase to phase and from phase to ground, This requires 

3 measurements if one side is grounded and 6 measurements for 3 phase 

circuits. 

Where splices or terminations are required in circuits rated above 600 

Volts, measure insulation resistance of each length of cable before splicing 

and or/terminating. Repeat measurement after splices and/ or 

terminations are completed.



6.2 Measure the insulation resistance of directly buried cable circuits before 

cable trenches are back-filled. Repeat measurement after back filling. 

6.3 D.C. High voltage test shall be made after installation on the 

following:- 

1) All 1000 Volts grade cables in which straight through joints have 

been made. 

2) All cables above 1100 V grade. For record purposes test data shall 

include the measure values of leakage current verses time. 

The D.C. High voltage test shall be performed as detailed below in 

the presence of the Engineer-in-charge or his authorized 

representative only. 

Cables shall be installed in final position with all the straight 

through joints complete. Terminations shall be kept unfinished so 

that motors, switchgears, transformers etc. are not subjected to 

test voltage. 

The test voltage and duration shall be as per relevant codes and 

practices of Indian Standard Institution. 

7.0 H.T. CABLE LAYING 

7.1 CABLES LAID IN BUILT UP TRENCHES : 

7.1.1 Cables laid in the built-up trenches within the building shall be raised so 

as not to lay at the trench bottom. Cables shall be either secured to the 

wall by saddles or laid on angle iron brackets or cable trays, ladders, 

rack, trough etc. as approved by CIDCO. Where cables are laid on cable



brackets, the brackets shall not be fixed more than 500 mm. apart to 

avoid sag in the cables. Where cables shall be fixed with cable tie or 

saddles and shall be at minimum 25 mm. away from side walls and 

minimum 150 mm distance shall be observed between two adjacent 

cables. 

7.1.2 The dimensions of the trenches shall be determined depending upon the 

maximum number of cables that is expected to be accommodated. 

Wherever specified, trenches shall be filled with fine sand and covered 

with RCC or steel chequered trench covers. 

7.2 DUCT SYSTEM : 

Wherever specified cables shall be laid in underground ducts. The duct 

system shall consist of required number of reinforced hume pipes with 

simplex joints. The ducts shall be properly anchored to prevent any 

movement. The top surface of the cable ducts shall not be less than 

100 mm below the ground level. The ducts shall be provided with 

inspection manholes at all direction changes and at required regular 

intervals of 50 mtr. for drawing the cables. The manholes shall be at 

reinforced concrete either cast-in-situ or precast. The manhole covers 

shall be RCC cover of suitable weight to withstand the load of the road 

vehicle. The ducts shall be properly plugged at the ends to prevent 

entry of water, rodents etc. Suitable duct markers shall be placed along 

the run of the cable ducts. The duct markers shall be at least be 15 

cms. square embedded in concrete, indicating the voltage, number of 

ducts and direction of run of the cable be provided in the manholes for 

supporting the cables. Proper identification tags shall be provided for 

each cable in the manholes.



7.3 CABLE TRENCHES (EXCAVATED): 

7.3.1 The cable trenches shall be excavated 1000 mm below the finished 

ground level and shall have a minimum width of 300 mm. for laying of 

single cable. When more than one cables are laid in the same trench, 

the width of the trench shall be increased such that the spacing 

between the cables is 25 cms. and the end cables are at minimum 15 

cms. from the side of the trenches. At the turning of the cable route 

the trench shall be dug with radius equal to 15 times the cable 

diameter. 

7.3.2 The trenches shall be cut square with vertical side walls and with 

uniform depth. Suitable shoring and propping may be done to avoid 

caving in of trench walls. The floor of the trench shall be rammed and 

leveled. The bottom of the cable trench shall be prepared with 100mm. 

sand bed for laying the cables. 

7.3.3 The cables shall be laid in trenches over the rollers. After the cable is 

laid and straightened it shall be covered with sand, and RCC half 

round/semi circular pipe of appropriate strength & size. 

7.3.4 The cable trench then shall be refilled with excavated materials after 

removing the stones and other sharp materials and the refilled materials 

shall be compacted with light ramming. 

7.3.5 Approved cable markers made of G.I. with 15 cms crown shall be 

provided along the route of cables at a spacing of 40 – 50 meters and 

also at both ends of road crossings or at the cable turning points. The 

class, type and No. of cables shall be indicated on the markers.



7.3.6 Cable shall be laid in hume pipes at all road crossings and in GI pipes at 

the wall entries. 

7.4 CABLE JOINTING : 

7.4.1 Cable jointing shall be done as per the recommendations of the cable 

manufacturer. Jointing shall be done by qualified cable jointer. The 

location of the cable joint shall not be where the cable takes a bend also 

where the soil is loose and shows signs of subsidence. 

7.5 CABLE TERMINATION : 

7.5.1 All cable termination shall be done in cable end box provided in RMU, 

Transformer or any other H.T. equipment. 

7.5.2 Cable terminations are to be made with cable heat shrinkable 

termination kits of specified approved make only. 

7.5.3 Every connection at a cable termination shall be mechanically and 

electrically sound and protected against mechanical damage and any 

vibration liable to occur shall not impose any harmful mechanical 

damage to the cable conductor. 

7.6 TESTING OF CABLE BEFORE LAYING AND COMMISSIONING : 

7.6.1 All tests shall be carried out in accordance with relevant IS codes of 

practice, IE rules.



7.6.2 100% cable drums shall be checked for continuity and cross continuity 

tests to ensure that there is no internal damage to the cable during 

transportation. 

7.6.3 Installation resistance shall be measured with 1000 V megger between 

the cores and all the cores to earth (armour) and results shall be 

recorded. 

7.6.4 Before cable jointing is done, cable shall be tested for presence of 

moisture by dipping a piece of insulation of cable in hot compound of 

paraffin was at temperature between 120 –140 degree centigrade. The 

presence of moisture is indicated by the formation of bubbles. Only a 

single strip of insulation gripped by a pair of tweezers should be used. 

7.6.5 After the cables are installed before commissioning it shall be tested for 

high DC voltage test. The recommended volts and duration of the test 

shall be as per I.E. rules & regulations. However the test voltage and 

duration shall be in conformity with standards of local supply 

authorities. During high voltage tests all electrical equipments related 

to the cable installation must be earthed and adequate clearance shall 

be maintained from the other equipments and from work to prevent 

flash over. 

_______________________ _______________________ 


Contractor 


Date : 

Date :



CODES AND STANDARDS 

The following codes and standards shall be applicable for continuous 

performance of all electrical equipments to be supplied, delivered at site, 

erected, tested and commissioning. The electrical equipments offered 

shall comply to the relevant Indian Standards Specifications. Fire 

Insurance Regulations, Tariff Advisory Committee Regulations, and 

particular to Indian Electricity Rules in all respect with all its latest 

amendments upto date. 

For guidelines to the tenderers, few of the Indian Standards are indicated 

below :- 

1. IS:116 - Circuit breakers for AC System. 

2. IS:159 - Bubars and Busbars connections. 

3. IS:3043 - Code of practice of earthing. 

4. IS:10116 - Code of practice for installation of 

switchgear. 

5. IS:10116 - Code of practice for selection, 

installation and maintenance of 

fuse (upto 650 Volts.) 

6. IS:3165 - Potential Transformers. 

7. IS:3203 - Climate proofing of electrical 

equipments. 

8. IS:3427 - Metal enclosed switchgear and 

central gear. 

9. IS:3419 - Specification for fittings for rigid PVC 

non-metallic conduit. 

10. IS:3537 - Gas separated relays. 

11. IS:3639 - Fittings and accessories for power 

Transformer.



12. IS:3837 - Accessories for rigid steel conduits. 

13. IS:4064 - Heavy duty Air Break switches and 

composite. Switch fuse units for 

voltage and exceeding 100V. 

14. IS:4064 - Switch fuse units for Industries etc. 

15. IS:4237 - General requirements for switchgears 

not exceeding 1000 Volts. 

16. IS:4615 - Switch socket outlet. 

17. IS:5133 (Part-I) - Sheet steel boxed. 

18. IS:3070 (Part-I) - Lighting Are stores. 

19. IS:2034 - L.T. capacitors. 

20. IS:192 - Electric power switchgear for indoor 

and outdoor installation. 

21. IS:PUB 26 - Circuit Breakers. 

22. IS:9535 - Specification for conduits for electrical 

installation. 

23. IS:240 (Part-I & II) - for H.T. insulator of 33KV grade and 

above. 

24. IS:335 - Insulating Transformer Oil. 

25. IS:374 - Ceiling fans. 

26. IS:375 - Marking and arrangement for switchgear 

boards main connections auxiliary wiring 

27. IS:415 - Tungsten filament lamps. 

28. IS:692 - Paper insulated cables. 

29. IS:694 - PVC insulated cables and cords for 

power lighting.



30. IS:722 - Three phase watt hour meters with MDI 

31. IS:732 - Electrical wiring installation (upto 650V) 

32. IS:1087 - Single pole tumbler switch 5 Amps. 

33. IS:1248 - Direct reading electrical indicating 

instruments. 

34. IS:1255 - installation and maintenance of paper 

insulated power cables upto 33 KV) 

35. IS:1293 - 3 Pin lugs and sockets outlets. 

36. IS:1554 - PVC insulated cables – heavy duty. 

37. IS:1567 - Metal clad switches upto 100 Amps. 

38. IS:1651 - Lead acid cell batteries. 

39. IS:1653 - Rigid steel conduits for electric wiring. 

40. IS:1771 - Industrial light fittings with accessories. 

41. IS:6600 - Loading of oil immersed transformer. 

42. IS:6946 - Reliable (flexible) non-metallic conduits 

for electrical. 

43. IS:7098 (Part-II) - For XLPE type cables. 

44. IS:5216 - Guide for safely procedure and practices 

in electric work. 

45. IS:5578 - Guide for marking of insulated 

conductors. 

46. IS: 5792 - 11 kv drop out fuses. 

47. IS:5820 - Pre-cast concrete cables covers.



48. IS:5908 - Method of measurement of electrical 

installation in building. 

49. IS:6381 - Specifications for construction and 

testing of electrical apparatus. 

50. IS:1818 - Isolation and earthing switches. 

51. IS:1886 - Code practice for installation of 

transformers. 

52. IS:1947 - Flood lights. 

53. IS:2026 - Transformers. 

54. IS:9242 - Degree of protection provided for 

enclosure for switchgear. 

55. IS:9242 - HRS cartridge fuse units upto 650 Volts. 

56. IS:2251 - Code of practice for Danger Notice 

Plates. 

57. IS:2268 - Code bell/buzzers. 

58. IS:2274 - Code of practice for wiring installation 

(exceeding 650 Volts) 

59. IS:3854 - Switches for domestic and similar 

purpose. 

60. IS:2312 - Exhaust fans. 

61. IS:2309 - Code of practice for lighting protection. 

62. IS:2418 - Tubular fluorescent lamps for general 

lighting service. 

63. IS:2544 - Porcelain post top insulators for BBW 

Class. 

64. IS:2509 - PVC electrical conduits.



65. IS:2516 - A.C. Circuit breakers. 

66. IS:2667 - Fittings for rigid steel conduits for 

electrical wiring. 

67. IS:2692 - 11 KV drop out fuses. 

68. IS:2575 - Enclosed distribution fuse boards and 

cutouts for voltage upto 1000 V. 

69. IS:2705 - Current transformer. 

70. IS 14930 II - Double Walled Corrugated pipes of High 

Density Polyethylene (HDPE) with 

couplings, tees, sockets for cable 

protection. 

The entire electrical installation work shall be strictly complied with the codes, 

standards, rules and regulations framed under the Indian Electricity Act. Further 

it shall be strictly carried out as per the regulations and rules set out by “Tariff 

Advisory Committee and/or Fire Insurance Regulations”. 

Some of the rules framed under the Indian Electricity Rules, 1956 and all 

amendments thereof more particularly complied to : 

35, 43, 44, 44-A, 45 (Part), 50, 51, 59, 61 (a), 61 (c), 62, 63 (2), 65, 66, 67, 68, 

69 and 92(2). 

_______________________ _______________________ 


Contractor 


Date : 

Date :



LIST OF APPPROVED MAKES OF ACCESSORIES FOR 

ELECTRICAL WORKS 

Sr. 

No. 

Particulars 

Makes 

1. Submersible Pump /Monoblock Crompton Greaves, Aqua, Kirloskar, 

pumps 

Mather & Platt, Modi, KSB, Kishor, 

Flowmore, ABS, Grundfos, Flygt 

Universal Engineers. 

2. Ring Main Unit/HT switches & Fuse MEI, Southern, Andrew Yule. 

unit 

3. C.T./P.T. MSEB approved/Hupken 

4. Auto Transformer starter MEI, Kilburn, JMP, Siemens, Andrew 

Yule, GEC, KEC 

5. Trivector Meter MSEB approved 

6. Measuring Instruments IMP, AE, UE, MECO, FE, Rishline 

(L&T), Ashida 

7. Current transformer AE, Gilbert & Maxwell, IMP, Siemens 

8. PVC Conduits, PVC Pipes, DWC 

DHPE pipes 

SEGC (C.S), Pragati 

Garware, Pricision, Circlearc, Popular, 

Prince, Shaktiman, REX Polyextrusion 

Ltd. Premium Pipes and fittings, 

Madhu Plast. 

Usha, Crompton, Bajaj, Cinni, Rallies, 

9. Ceiling/Table Fans/ Air 

Circulators 

Orient, Polar, Almonard, Alfa. 

10. G.O.D. Switches & Dropout fuse Kiran, Pactil, Atlas, Cona Industries, 

Outfit 

Leader Electricals, Elle Electricals 

11. Chain Pulley Block Elephanta, Herculas, WMI 

12. Sluice Valve Kirloskar, IVC 

13. Butterfly Valve Forbes, IVC 

14. Lugs Dowels, Lotus, A.G. Electricals 

15. C.I. Pipes Tisco, Sail, Damodar, Shivdurg.



Sr. 

No. 

Particulars Makes 

16. Chlorinator Penwalt, Shree Mitra Purification 

17. Motor Protection Relays Universal, Thresold, E.E., Minilac, 

Siemens, C.S. Telemechanique, Indo- 

Asian, L&T, Ashidha Electronics Pvt. 

Ltd. 

18. 11KV cable/ 22KV cable CCI, Tropodur, Asian, Nicco, ICL, 

Gloster, Torrent, Polycab, HVP, Plaza 

19. Feeder Pillar/ Mini pillar Popular Brass Metal works, Anil Elect. 

Ind. Manish, Super or any other 

manufacturer approved by Dept. 

20. Transformer Indo Tech Transformers, Kirloskar, 

Emco, Bharat Bijlee, Crompton, 

BSES, Andrew Yule, Pactil, NGEF 

Delta, KEL, Sharun, Tesla, Argus., 

Tesla 

21. PVC Insulated 1.1kV cable Plaza Cables, Havells’ India Ltd., 

Vardhaman Cables (Bharat Cab), R.K. 

Kables Ltd., Revin cable Ltd., Fixolite 

Wires and Cables, Macro Cables Pvt. 

Ltd., Dasmesh Cables, Leader 

Electricals (Leader Leacab), Gemscab 

Industries Ltd., Polycab, RPG 

22. XLPE – LT cables Plaza Cables, Vardhaman Cables 

(Bharat Cab), Ravin cable Ltd., 

Macro Cables, Fixolite Wires and 

Cables, Dasmesh Cables, Central 

cable Ltd., Gemscab Industries Ltd., 

Polycab, RPG 

23. XLPE – HT Cables Torrent Cables, Plaza Cables, Revin 

cable Ltd., Central Cable Ltd., 

Polycab, RPG 

24. PVC insulated 1.1kV (HD) cable. Plaza Caes, Vardhaman Cables 

(Bharat Cab), Havell’s India Ltd., 

R.K. Kables Ltd., Macro Cables, 

Dasmesh Cables, Central Cable Ltd., 

Gemscab Industries Ltd., Polycab



Sr. 

No. 


25. PVC insulated 11kV (HD) cable. Havell’s India Ltd., Central Cable Ltd., 

26. MCB, ELCB, RCCB Indo Asian Fuse Gear,Standard 

Electrical, Leader Electricals (Leader 

Aplha Brand), Esprit Switchgear Ltd, 

Indiana Current Co troll (Versatrip 

brand), Datar, L&T 

27. MCCB Standard Electrical, Spaceage 

28. Isolators/ Disconn-ectors, LV 

Switchgears, Esprit Switchgear Ltd., 

Datar, L&T, Indo Asian 

Standard Electrical, Kilburn 

Switch gear/ Switch fuses 

29. Distribution Board Indo Asian Switchgear, Standard 

Electrical, Esprit Switchgear Ltd., 

Indiana Current Control (Versatrip), 

Super 

30. HRC Fuses & bases Indo Asian Switchgear, Havell’s India 

Ltd., R.B. Commercial Corporation 

31. Compact Floures- cent Lamps Indo Asian Fuse gear 

32. Alternate Circuit Breaker (acb) Spaceage Switchgears. 

33. 

PVC Wires, Copper Aluminium 

Conductor, flexible cables 

Philco, Plyroflux, Paragon, Phenolex, 

Delta., Polyplast, Sundeep, V-Plast, 

Apex, Silvex, Pagoda, Sapcecab, 

HMT, Ralicab, Finolex. 

34. Fuse switches/ SW fuse L&T, Siemens, Crompton, 

Telemechanique. Indo-Asian, Havells, 

EE, HH-ELCON, Standard, KEW, Kalki, 

Sentinel, Stenly., Samrat 

35. Switches/Sockets Kalki, CPL, Anchor, Precission, MK, 

HME, EEW. 

36. Cable Glands HME, EEW, 

37. HC Fuse Distribution Board CPL, EE, Stenly, KEW, Kalki, EE, 

Standard. 

38. Air/Oil Circuit Breakers (HT/LT) Kilburn, Easun, MEI, Jyoti, Andrew 

Yule, Siemens, L&T, GEC, Southern, 

BHEL, Telemechanique, Crompton. 

39. Energy Meters Jaipur.



Sr. 

No. 


40. Capacitor GEC, Khatau-Junkar, Crompton, L&T, 

Madhav, Atlanta, Prabhodhan, 

41. Steel tubular Poles 

Maladay, Aison (S+M), Samrat. 

Indian Electric Poles, Bombay Tubes, 

Nityanand, Rajan Tubes. 

42. GI Octagonal Poles Zenith, Tata, Bharat, Bajaj, Saino/ 

Senzo Engg. Pvt. Ltd., Jenco 

43. 

Industrial Corpn, Shah Pylon, Philips. 

Terminal Box, Bracket, Junction ELM, United, DVK, Locally fabricated 

Box, control pillar. 

as per CIDCO’s approved drawing/ 

specifications. 

Abak Electricals. 

44. Street light Luminaries Bajaj, Crompton, Philips, Genlec, 

45. Chokes/Ignitors/ Electronic 

Keselec, ELM, Mysore, Wipro, GE- 

Apar, Canara, Glolite, ECE, Indo- 

Asian. 

Vallient Electricals Pvt. Ltd., Fixolite 

Industrires. 

Bajaj, Crompton, Philips, Genelec, 

Ballast 

Keselac, GE-Apar, Glolite, ECE, Indo- 

Asian. 

Fixolite Industries, Madhu Gupta & 

Associates Pvt. Ltd. 

46. Power contactors L&T, Siemens, Bharticulter, Hammer, 

Telemechanique, HH-ELCON, 

47. Lamps 

Standard, Kirloskar, Crompton, CS. 

Bajaj, Crompton, Philips, Cema, HMT, 

Electron, Surya, Mysore, Sylvania- 

Laxman, Solarson, ECE, Indo-Asian. 

Solarson, ECE, Indo-Asian 

48. Rotary/Select or Switches L&T, Siemens, Kaycee, EE, Bisons 

(ELM) 

49. Post top Lantern Philips, Crompton, Glolite, Bajaj, 

Parimal, Tulip, Kesselec, ECE, 

Genelec, ELM, Wipro, Indo-Asian. 

50. Street Light controller/ Timer L&T (TSQ 100) 24 Hrs. Dial, ELM.



Sr. 

No. 


51. ACSR Conductors V.K. Industries, Smita Conductors, 

Bombay Conductors Straight, Galada, 

Sterlite. 

52. Alternators Kirloskar, Jyoti, NGEF, AVK-SEGC, 

KEL, Cater Pillar, Stmford, C.G., 

53. Diesel Engines 

Newage Elect. Ltd. 

Kirloskar, Greaves Cotton, Cummins, 

Ashok Leyland, Cater piller. 

54. Flow meters Signet, Monetek, Voryex. 

55. Cable Jointing kit UNCIL SYNCHEM, Raychem, Xicon, 

Benson, Mahindra (Push on) M-Seal. 

56. Pole paint Jehnson & Nicholson, Asian (s+M), 

Nerolac. 

57. Flourescent Fixtures Bajaj, Crompton, Philips, GEC, 

Genelec, Mysore, Wipro, Glolite, 

Litwell, ECE, Prestolite, Indo-Asian. 

58. Elevators Shindler India Ltd, Escon Elevators 

Ltd. 

59. Energy Saver Device Prithvi Technology Pvt. Ltd. 

_______________________ ________________________ 


Contractor 


Date : 

Date :

SCOPE OF WORK (ELECTRICAL) - CIDCO Maharashtra Ltd.

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