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Dry-type hollow series reactor

Environmental usage conditions:
a. The altitude of the area of use shall not exceed 1000m.
b. The ambient temperature in the area of use: -40~+45 ℃.
c. The place of use should be free from severe mechanical vibration, harmful gases and vapors, and conductive or explosive dust.
4.2 Other usage conditions:
Before the capacitor is put into operation, the remaining voltage between its terminals should not exceed 10% of the rated voltage. When capacitors involve high relative humidity, rapid mold growth, corrosive atmosphere, pollution, and altitude exceeding 1000m


Keywords:

Dry-type hollow series reactor

Details

I. Product use

Dry type hollow series reactor is suitable for 6, 10, 35kV power system, connected in series with shunt capacitors, used to suppress the voltage waveform distortion of the power grid, so as to change the quality of the power grid and ensure the safe operation of the power system; The harmonic current flowing through the capacitor bank is suppressed and the inrush current is limited so as to protect the capacitor for safe and reliable operation.

 

2. The use of environmental conditions

1. Use place: outdoor or indoor, indoor use should pay attention to ventilation and heat dissipation.
2. Ambient temperature: -40 ~ 45℃.
3. Relative humidity: monthly average is not more than 90%, daily average is not more than 95%.
4. Maximum wind speed: no more than 30m/s.
5. Altitude: No more than 1000m (above 1000m shall be stated when ordering).
6. Earthquake resistance: can withstand the intensity of 8 degrees earthquake.
7. There should be no violent vibration or turbulence in the installation and operation area.
8. The installation and operation area shall be free from harmful gas, steam, conductivity or explosive dust.
(If there is any special request, please indicate it when ordering.)

 

3. Implementation of standards

1. GB/T1094.6-2011 "Power transformer Part 6: reactor"
2. JB5346-2014 "Series reactor for High voltage shunt capacitors"
3. IEC280-1987 Reactor Standard
4. DL462-92 "Ordering Technical Conditions of Series reactors for High voltage Shunt capacitors"

 

4. Product structure

1. The reactor adopts dry hollow structure, to avoid oil leakage, inflammability and other shortcomings of oil-immersed reactor, simple maintenance, safe operation, no core, no ferromagnetic saturation, inductance value will not change with the current change, good linearity, low noise.
2. The reactor is wrapped by weft less glass ribbon impregnated with epoxy ester. The reactor coil is made of polyester film and glass wire with excellent insulation performance as the interturn insulation of the wire.
3. The reactor surface is covered with silicone organic paint resistant to ultraviolet radiation, which has good resistance to outdoor weather conditions.
4. The reactor uses polyester glass drawing rod as an axial heat dissipating airway, which has good heat dissipation performance.
5. When calculating the temperature rise of the reactor, the maximum temperature of the hot spot is taken into account, and a considerable margin is left, so as to ensure the long-term safe operation of the reactor.
6. Because the reactor adopts multi-layer parallel structure, the axial electrical stress of the coil is zero. Under the steady-state working voltage, the voltage distribution along the coil in the axial height direction is uniform.
7. Because the reactor is enclosed with weft less glass ribbon impregnated with epoxy resin, the coil has good integrity after curing, and the noise level of the reactor is below 60dB throughout its service life.
8. The reactor uses a small section of aluminum wire (Φ1.5 ~ Φ5) as the coil conductor, effectively reducing the eddy current loss in the harmonic state of the conductor.
9. Because the coil is wrapped by weft less glass ribbon impregnated with epoxy resin, the coil has a very high resistance to short circuit current due to the great mechanical force generated when the reactor passes through the short circuit current.
10. The conductive part of the reactor is welded with argon arc welding, and the mechanical structure has no fastening parts, which greatly improves the operation reliability.
11. The whole reactor structure is simple and compact, and it can run in outdoor weather conditions for a long time, without the requirement of equipment maintenance.

 

5. Main order parameters

1. Rated frequency;
2. System voltage;
3. Rated capacity of supporting capacitor bank;
4. Rated voltage of supporting capacitors;
5. Rated reactance or reactance rate of reactor;
6. Insulation level;
7. Insulation heat resistance grade;
8. Use place: indoor or outdoor;
9. Installation method and Angle between inlet and outlet lines;
10. Other special requests.

 

6. Model significance

7. Technical parameters and dimensions

Technical parameters of CKDK dry hollow series reactor (installation mode :1 three-phase flat or duplex flat, 2 three-phase stacked) Table 1

Model

System voltage Parallel appliance parameter Rated capacity Rated current Rated reactance reactance Installation mode

Outside diameter ΦD

Install center diameter φdc

The height to the ground is H1 Coil height H2 The phase distance is H3 pivot Coil weight
Rated capacity Rated voltage
kV kvar kV kvar A Ω %

 

 

mm mm mm mm mm Only count kg
CKDK-6-20/0.191-5 6 1200 6.6/√3 20 105 1.82 5 1 790 600 477 618

 

3 75
2 890 700 477 559 314 4 75
CKDK-6-24/0.229-6 24 2.19 6 1 690 500 477 765

 

3 90
2 890 700 477 603 314 4 90
CKDK-6-48/0.499-12 7.2/√3 48 96.2 5.19 12 1 740 600 477 904

 

3 135
2 1000 800 627 603 314 4 125
CKDK-6-25/0.191-5  1500 6.6/√3 25 131.2 1.45 5 1 690 500 477 953

 

3 95
2 870 700 477 717 314 4 85
CKDK-6-30/0.229-6 30 1.74 6 1 690 500 477 1046

 

3 105
2 890 700 477 790 314 4 110
CKDK-6-60/0.499-12 7.2/√3 60 120.3 4.15 12 1 805 600 477 915

 

3 150
2 1105 900 627 737 314 4 155
CKDK-6-30/0.191-5 1800 6.6/√3 30 157.5 1.21 5 1 680 500 477 964

 

3 105
2 880 700 477 725 314 4 95
CKDK-6-36/0.229-6 36 1.45 6 1 795 600 477 915

 

3 115
2 910 700 477 628 314 4 115
CKDK-6-72/0.499-12 7.2/√3 72 144.3 3.46 12 1 825 700 477 940

 

3 170
2 1125 900 627 694 314 4 160
CKDK-6-40/0.191-5 2400 6.6/√3 40 210.0 0.91 5 1 800 600 477 850

 

3 115
2 900 700 477 735 314 4 110
CKDK-6-48/0.229-6 48 1.09 6 1 800 600 477 941

 

3 130
2 1000 800 627 755 314 4 125
CKDK-6-96/0.499-12 7.2/√3 96 192.4 2.59 12 1 935 800 477 902

 

3 205
2 1135 1000 627 694 314 4 190
CKDK-6-50/0.191-5 3000 6.6/√3 50 262.4 0.73 5 1 805 600 477 902

 

3 135
2 905 700 477 789 314 4 130
CKDK-6-60/0.229-6 60 0.87 6 1 780 600 477 855

 

3 160
2 880 700 477 733 314 4 150
CKDK-6-120/0.499-12 7.2/√3 120 240.6 2.07 12 1 980 800 497 1056

 

4 270
2 1125 900 627 596 314 4 275
CKDK-6-60/0.191-5 3600 6.6/√3 60 314.9 0.61 5 1 800 600 477 921

 

3 150
2 960 800 627 642 314 4 145
CKDK-6-72/0.229-6 72 0.73 6 1 816 600 477 1032

 

3 170
2 960 800 477 696 314 4 160
CKDK-6-144/0.499-12 7.2/√3 144 288.7 1.73 12 1 985 800 497 1059

 

3 275
2 1280 1100 627 776 314 6 250

 

Table 2

Model System voltage Paralleling electrical parameters Rated capacity Rated current Rated reactance Reactance rate Installation method

Outer diameter Φ D

Installation pitch diameter φ dc

Ground height H1 Coil high H2 Phase spacing H3 fulcrum Coil weight
Rated capacity Rated voltage
kV kvar kV kvar A Ω %

 

mm mm mm mm mm Only count kg
CKDK-6-70/0.191-5 6 4200 6.6/√3 70 367.4 0.52 5 1 835 700 477 864

 

3 170
2 920 700 477 752 314 4 155
CKDK-6-84/0.229-6 84 0.62 6 1 835 700 477 956

 

3 190
2 1120 900 627 693 314 4 175
CKDK-6-168/0.499-12 7.2/√3 168 336.8 1.48 12 1 930 800 477 1310

 

3 300
2 1250 1100 627 768 314 6 280
CKDK-6-80/0.191-5  4800 6.6/√3 80 419.9 0.45 5 1 880 700 477 755

 

4 195
2 980 800 497 679 314 4 175
CKDK-6-96/0.229-6 96 0.54 6 1 800 600 477 904

 

3 210
2 900 700 477 793 314 4 200
CKDK-6-192/0.499-12 7.2/√3 192 384.9 1.30 12 1 960 800 497 1042

 

3 330
2 1225 1100 627 786 314 6 305
CKDK-10-16.7/0.318-5 10 1000 11/√3 16.7 52.5 6.04 5 1 675 500 477 817

 

3 85
2 975 800 477 602 314 4 80
CKDK-10-20/0.381-6 20 7.26 6 1 675 500 477 906

 

3 95
2 875 700 477 709 314 4 85
CKDK-10-40/0.831-12 12/√3 40 48.1 17.28 12 1 780 600 477 1188

 

3 142
2 1080 900 627 830 314 4 135
CKDK-10-20/0.318-5 1200 11/√3 20 63.0 5.04 5 1 670 500 477 991

 

3 90
2 1070 900 627 649 314 4 85
CKDK-10-24/0.831-6 24 6.05 6 1 670 500 477 991

 

3 100
2 1000 800 627 715 314 4 95
CKDK-10-48/0.831-12 12/√3 48 57.7 14.40 12 1 785 600 477 1178

 

3 150
2 1185 1000 627 763 314 4 135
CKDK-10-25/0.318-5 1500 11/√3 25 78.7 4.03 5 1 675 500 477 1035

 

3 100
2 890 700 477 618 314 4 85
CKDK-10-30/0.381-6 30 4.84 6 1 690 500 477 860

 

3 110
2 790 600 477 777 314 4 105
CKDK-10-60/0.831-12 12/√3 60 72.2 11.52 12 1 790 600 477 1006

 

3 160
2 1190 1000 627 772 314 4 150
CKDK-10-30/0.318-5 1800 11/√3 30 94.5 3.36 5 1 675 500 477 1050

 

3 105
2 1075 900 627 660 314 4 100
CKDK-10-36/0.381-6 36 4.03 6 1 690 500 477 1190

 

3 125
2 985 800 497 686 314 4 115
CKDK-10-72/0.831-12 12/√3 72 86.6 9.60 12 1 905 700 427 1030

 

3 170
2 1195 1000 627 786 314 4 160

 

Table 3

Model system voltage Parallel appliance parameter Rated capacity Rated current Rated reactance Reactance rate Installation method Outer diameter Φ D Installation pitch diameter φ dc Ground height H1 Coil high H2 Phase spacing H3 fulcrum Coil weight
Rated capacity Rated voltage
kV kvar kV kvar A Ω %

 

mm mm mm mm mm Only count kg
CKDK-10-33.4/0.318-5 10 2000 11/√3 33.4 105.0 3.02 5 1 700 500 477 839

 

3 115
2 900 700 477 648 314 4 110
CKDK-10-40/0.381-6 40 3.63 6 1 700 500 477 897

 

3 125
2 1000 800 627 644 314 4 120
CKDK-10-80/0.831-12 12/√3 80 96.2 8.64 12 1 845 700 477 10690

 

3 220
2 1225 1000 627 720 314 6 205
CKDK-10-40/0.318-5 2400 11/√3 40 126.0 2.52 5 1 775 600 477 721

 

3 125
2 855 700 477 640 314 4 125
CKDK-10-48/0.381-6 48 3.02 6 1 780 600 477 798

 

3 140
2 955 800 497 635 314 4 135
CKDK-10-96/0.831-12 12/√3 96 115.5 7.20 12 1 855 700 477 1062

 

3 240
2 1175 1000 627 741 314 4 210
CKDK-10-45/0.318-5 2700 11/√3 45 141.7 2.24 5 1 760 600 477 714

 

3 135
2 1060 900 627 553 314 4 135
CKDK-10-54/0.381-6 54 2.67 6 1 760 600 477 783

 

3 150
2 940 800 477 644 314 4 140
CKDK-10-108/0.831-12 12/√3 108 129.9 6.40 12 1 960 800 497 952

 

3 230
2 1155 1000 627 773 314 4 215
CKDK-10-50/0.318-5 3000 11/√3 50 157.5 2.02 5 1 765 600 477 750

 

3 150
2 950 800 497 591 314 4 145
CKDK-10-60/0.381-6 60 2.42 6 1 790 600 477 790

 

3 160
2 1110 900 627 537 314 4 155
CKDK-10-120/0.831-12 12/√3 120 144.3 5.75 12 1 845 700 477 1069

 

3 285
2 1010 800 627 839 314 4 260
CKDK-10-60/0.318-5 3600 11/√3 60 189.0 1.68 5 1 795 600 477 1077

 

3 160
2 975 800 497 601 314 4 150
CKDK-10-72/0.381-6 72 2.02 6 1 795 600 477 800

 

3 180
2 1195 1000 627 786 314 4 160
CKDK-10-144/0.831-12 12/√3 144 173.2 4.80 12 1 920 800 477 1011

 

3 310
2 1165 1000 627 696 314 4 260
CKDK-10-66.7/0.318-5 4000 11/√3 66.7 209.9 1.51 5 1 875 700 477 882

 

3 180
2 1070 900 627 706 314 4 170
CKDK-10-80/0.381-6 80 1.81 6 1 830 600 477 742

 

3 200
2 1145 1000 627 725 314 4 180
CKDK-10-160/0.831-12 12/√3 160 192.5 4.32 12 1 860 700 477 1111

 

3 335
2 1170 1000 627 739 314 4 315

 

Table 4

Model System voltage Paralleling electrical parameters Rated capacity Rated current Rated reactance Reactance rate Installation method

Outer diameter Φ D

Installation pitch diameter φ dc

Ground height H1 Coil high H2 Phase spacing H3 fulcrum Coil weight
Rated capacity Rated voltage
kV kvar kV kvar A Ω %

 

mm mm mm mm mm Only count kg
CKDK-10-70/0.318-5 10 4200 11/√3 70 220.4 1.44 5 1 870 700 477 866

 

3 175
2 1170 1000 627 649 314 4 160
CKDK-10-84/0.381-6 84 1.73 6 1 875 700 477 982

 

3 210
2 1170 1000 627 730 314 4 190
CKDK-10-168/0.831-12 12/√3 168 202.1 4.11 12 1 965 800 497 963

 

3 315
2 1160 1000 627 763 314 4 285
CKDK-10-75/0.318-5 4500 11/√3 75 236.2 1.34 5 1 875 700 477 885

 

3 190
2 1150 1000 627 692 314 4 180
CKDK-10-90/0.381-6 90 1.61 6 1 875 700 477 978

 

3 210
2 1175 1000 627 745 314 4 200
CKDK-10-180/0.831-12 12/√3 180 216.5 3.84 12 1 965 800 497 986

 

3 325
2 1195 1000 627 759 314 4 300
CKDK-10-80/0.318-5 4800 11/√3 80 251.9 1.26 5 1 780 600 477 1062

 

3 210
2 1075 900 627 558 314 4 200
CKDK-10-96/0.381-6 96 1.51 6 1 880 700 477 996

 

3 230
2 1180 1000 627 748 314 4 220
CKDK-10-192/0.831-12 12/√3 192 230.9 3.60 12 1 870 700 477 1159

 

3 355
2 1235 1100 627 750 314 6 315
CKDK-10-83.3/0.318-5 5000 11/√3 83.3 262.4 1.21 5 1 860 700 477 927

 

3 210
2 1205 1000 627 622 314 6 200
CKDK-10-100/0.381-6 100 1.45 6 1 905 700 477 889

 

3 230
2 1205 1000 627 670 314 6 215
CKDK-10-200/0.831-12 12/√3 200 240.6 3.46 12 1 995 800 497 897

 

3 385
2 1395 1100 707 642 314 6 360
CKDK-10-90/0.318-5 5400 11/√3 90 283.4 1.12 5 1 910 700 477 820

 

3 210
2 1105 900 627 670 314 4 200
CKDK-10-108/0.381-6 108 1.34 6 1 945 800 477 915

 

3 260
2 1210 1000 627 681 314 6 240
CKDK-10-216/0.831-12 12/√3 216 259.8 3.20 12 1 1000 800 627 899

 

3 380
2 1140 900 627 741 314 4 355
CKDK-10-100/0.318-5 6000 11/√3 100 314.9 1.01 5 1 860 700 477 864

 

3 260
2 1060 900 627 670 314 4 230
CKDK-10-120/0.381-6 120 1.21 6 1 960 800 497 797

 

3 270
2 1160 1000 627 679 314 4 245
CKDK-10-240/0.831-12 12/√3 240 288.7 2.88 12 1 985 800 497 1459

 

3 420
2 1250 1100 627 694 314 6 360

 

Table 5

Model

system voltage Paralleling electrical parameters Rated capacity Rated current Rated reactance Reactance rate Installation method Outer diameter Φ D Installation pitch diameter φ dc Ground height H1 Coil high H2 Phase spacing H3 fulcrum

Coil weight

Rated capacity Rated voltage

kV

kvar

kV

kvar

A

Ω

%

 

mm

mm

mm

mm

mm

Only count

kg

CKDK-10-110/0.318-5

10

 

6600

11/√3

110

316.4

0.92

5

1

860

700

477

866

 

3

260

2

 

1195

1000

627

618

314

4

235

CKDK-10-132/0.381-6

132

1.10

6

1

 

910

700

477

887

 

3

280

2

 

1165

1000

627

681

314

4

260

CKDK-10-264/0.831-12

12/√3

264

317.5

2.62

12

1

1090

900

627

1282

 

 

3

405

2

1315

1100

707

665

314

6

375

CKDK-10-116.7/0.318-5

7000

 

11/√3

116.7

367.4

0.86

5

1

865

700

477

890

 

3

260

2

1245

1000

627

596

314

6

235

CKDK-10-140/0.381-6

140

1.04

6

1

915

700

477

901

 

3

285

2

 

1315

1100

707

618

314

6

265

CKDK-10-280/0.831-12

12/√3

280

336.8

2.47

12

1

1090

900

627

1307

 

3

425

2

1405

1200

707

763

314

6

410

CKDK-10-125/0.318-5

7500

 

11/√3

125

393.6

0.81

5

 

1

920

700

477

822

 

3

265

2

1270

1100

707

707

314

6

250

CKDK-10-150/0.381-6

150

0.97

6

1

920

700

477

906

 

3

295

2

1275

1100

627

666

314

6

280

CKDK-10-300/0.831-12

12/√3

300

360.8

2.30

12

1

1055

900

627

1251

 

3

480

2

1415

1200

727

740

314

6

435

CKDK-10-133.4/0.318-5

 

8000

 

11/√3

134

419.9

0.76

5

 

1

 

875

700

477

897

 

3

300

2

1080

900

627

689

314

4

275

CKDK-10-160/0.381-6

160

0.91

6

1

980

800

497

860

 

3

320

2

1205

1000

627

682

314

6

290

CKDK-10-320/0.831-12

12/√3

320

384.9

2.16

12

1

1060

900

627

1295

 

3

500

2

1415

1200

727

769

314

6

455

CKDK-10-150/0.318-5

9000

11/√3

150

472.4

0.67

5

1

880

700

477

909

 

3

300

2

1130

1000

627

678

314

4

275

CKDK-10-180/0.381-6

 

180

0.81

6

 

1

930

700

477

935

 

3

325

2

1230

1100

627

683

314

6

305

CKDK-10-360/0.831-12

12/√3

360

433.0

1.92

12

1

1120

900

627

909

 

3

505

2

1420

1200

727

789

314

6

465

CKDK-10-167/0.318-5

10000

 

11/√3

 

167

524.9

0.60

5

1

900

700

477

894

 

3

350

2

1200

100

627

633

314

6

310

CKDK-10-200/0.381-6

200

0.73

6

1

1000

800

627

871

 

3

365

2

1400

1200

727

606

314

6

350

CKDK-10-400/0.831-12

12/√3

400

481.1

1.73

12

1

1095

900

627

1180

 

3

570

2

1395

1200

727

835

314

6

520

 

Table 6

Model System voltage Paralleling electrical parameters Rated capacity Rated current Rated reactance Reactance rate Installation method

Outer diameter Φ D

Installation pitch diameter φ dc

Ground height H1 Coil high H2 Phase spacing H3 fulcrum Coil weight
Rated capacity Rated voltage
kV kvar kV kvar A Ω %

 

mm mm mm mm mm Only count kg
CKDK-35-66.7/1.1-5 35 4000 11×2 66.7 60.6 18.14 5 1 895 700 627 1177

 

3 180
CKDK-35-80/1.32-6 80 21.78 6 1 995 800 627 1172

 

3 200
CKDK-35-160/2.88-12 12×2 160 55.6 51.84 12 1 1295 1100 727 1457

 

3 320
CKDK-35-83.4/1.1-5 5000 11×2 83.4 75.8 14.51 5 1 810 600 627 1364

 

3 220
CKDK-35-100/1.32-6 100 17.42 6 1 1090 900 627 1137

 

3 240
CKDK-35-200/2.88-12 12×2 200 69.4 41.47 12 1 1305 1100 727 1315

 

3 350
CKDK-35-100/1.1-5 6000 11×2 100 90.9 12.1 5 1 1100 900 627 1136

 

3 240
CKDK-35-120/1.32-6 120 14.52 6 1 1010 800 627 1247

 

3 260
CKDK-35-240/2.88-12 12×2 240 83.3 34.56 12 1 1315 1100 727 1383

 

3 395
CKDK-35-116.7/1.1-5 7000 11×2 116.7 106.1 10.37 5 1 1100 900 627 1135

 

3 240
CKDK-35-140/1.32-6 140 12.45 6 1 1100 900 627 1269

 

3 275
CKDK-35-280/2.88-12 12×2 280 97.2 29.62 12 1 1320 1100 727 1408

 

3 425
CKDK-35-133.4/1.1-5 8000 11×2 133.4 121.2 9.07 5 1 1080 900 627 966

 

3 290
CKDK-35-160/1.32-6 160 10.89 6 1 980 800 627 1219

 

3 320
CKDK-35-320/2.88-12 12×2 320 111.1 25.92 12 1 1375 1200 727 1301

 

3 475
CKDK-35-150/1.1-5 9000 11×2 150 136.4 8.07 5 1 1080 900 627 969

 

3 280
CKDK-35-180/1.32-6 180 9.68 6 1 1180 1000 627 969

 

3 325
CKDK-35-360/2.88-12 12×2 360 125.0 23.04 12 1 1380 1200 727 1332

 

3 505
CKDK-35-166.7/1.1-5 10000 11×2 166.7 151.5 7.26 5 1 1150 1000 627 887

 

3 315
CKDK-35-200/1.32-6 200 8.71 6 1 1145 1000 627 951

 

3 345
CKDK-35-400/2.88-12 12×2 400 138.9 20.74 12 1 1245 1100 627 1322

 

3 565
CKDK-35-200/1.1-5 12000 11×2 200 181.8 6.05 5 1 1160 900 627 904

 

3 360
CKDK-35-240/1.32-6 240 7.26 6 1 1155 1000 627 1000

 

3 365
CKDK-35-480/2.88-12 12×2 480 166.7 17.28 12 1 1310 1100 727 1266

 

3 640
CKDK-35-250/1.1-5 15000 11×2 250 227.3 4.84 5 1 1170 1000 627 920

 

3 390
CKDK-35-300/1.1-6 300 5.81 6 1 1170 1000 627 1025

 

3 445
CKDK-35-600/2.88-12 12×2 600 208.3 13.82 12 1 1465 1300 757 1236

 

6 685
CKDK-35-300/1.1-5 18000 11×2 300 272.7 4.03 5 1 1145 1000 627 928

 

3 450
CKDK-35-360/1.32-6 360 4.84 6 1 1245 1100 627 946

 

3 500
CKDK-35-720/2.88-12 12×2 720 250 11.52 12 1 1340 1100 727 1372

 

6 845
CKDK-35-333.4/1.1-5 20000 11×2 333.4 303.0 3.63 5 1 1290 1100 727 1310

 

6 525
CKDK-35-400/1.32-6 400 4.36 6 1 1290 1100 727 1444

 

6 555
CKDK-35-800/2.88-12 12×2 800 277.8 10.37 12 1 1350 1200 727 1342

 

6 860
CKDK-35-416.7/1.1-5 25000 11×2 416.7 378.8 2.90 5 1 1300 1100 727 1281

 

6 540
CKDK-35-500/1.32-6 500 3.48 6 1 1400 1200 727 1323

 

6 595
CKDK-35-1000/2.88-12 12×2 1000 347.2 8.29 12 1 1675 1500 877 1378

 

6 1010

 

Table 7

Model System voltage Paralleling electrical parameters Rated capacity Rated current Rated reactance Reactance rate Installation method

Outer diameter Φ D

Installation pitch diameter φ dc

Ground height H1 Coil high H2 Phase spacing H3 fulcrum Coil weight
Rated capacity Rated voltage
kV kvar kV kvar A Ω %

 

mm mm mm mm mm Only count kg
CKDK-35-500/1.1-5 35 30000 11×2 500 454.5 2.42 5 1 1370 1200 727 1163

 

6 610
CKDK-35-600/1.32-6 600 2.90 6 1 1370 1200 727 1295

 

6 680
CKDK-35-1200/2.88-12 12×2 1200 416.7 6.91 12 1 1690 1500 877 1407

 

6 1130
CKDK-35-666.7/1.1-5 40000 11×2 666.7 606.1 1.81 5 1 1415 1200 727 1039

 

6 730
CKDK-35-800/1.32-6 800 2.18 6 1 1515 1300 777 1062

 

6 810
CKDK-35-1600/2.88-12 12×2 1600 555.6 5.18 12 1 1710 1500 877 1462

 

8 1330
CKDK-35-833.4/1.1-5 50000 11×2 833.4 757.6 1.45 5 1 1400 1200 727 1214

 

6 920
CKDK-35-1000/1.32-6 1000 1.74 6 1 1500 1300 777 1258

 

6 1030
CKDK-35-2000/2.88-12 12×2 2000 694.4 4.15 12 1 1805 1400 927 1455

 

8 1540
CKDK-35-1000/1.1-5 60000 11×2 1000 909.1 1.21 5 1 1630 1400 827 1029

 

6 1065
CKDK-35-1200/1.32-6 1200 1.45 6 1 1630 1400 827 1112

 

6 1120
CKDK-35-2400/2.88-12 12×2 2400 833.3 3.46 12 1 1880 1600 977 1398

 

8 1790

The company's product quality assurance, reliable use, CKDK type dry hollow series reactor and capacitor device good compatibility, price concessions, good service. We warmly welcome users from inside and outside the province to contact us.

 

8. Hoisting, transportation and unpacking acceptance

1. This product has the packaging suitable for long-distance transportation, in the transportation, loading and unloading and hoisting occasions should avoid falling, serious collision, bumps, etc., so as to avoid product damage.
2. The product shall use the lifting ring (provided by the user), which can be lifted after mounting the lifting ring on the upper star frame and tightening the lock nut. The lifting tool is only for lifting, and must be removed before the product is put into operation to avoid local overheating.
3. Before unpacking the package, check whether the package is damaged due to fall, serious collision, violent vibration, or turbulence.
4. After unpacking the reactor, check whether the data on the reactor nameplate is complete.
5. Check whether all components are complete according to the packing list.
6. Check whether the technical documents are complete according to the packing list.
7. Check the appearance of the reactor, its components and accessories for serious defects or damage caused by serious collision.
8. The exterior of the reactor is coated with outdoor anti-ultraviolet paint. The paint layer around it should be carefully checked for peeling phenomenon caused by abrasion.
9. The Buyer may, when conditions permit, carry out the following acceptance tests:
a. winding resistance measurement;
b. Power frequency voltage test, test voltage value according to the factory test value of 75% or lower voltage test.

 

9. Installation (basic installation form and installation size are shown in the attached figure 1, 2, 3)

1. Installation site requirements
a. Both the electrical safety distance and the alternating magnetic field safety distance should be considered for the safety distance between the reactor and the metal parts around it, and the maximum value should be taken between the two. The electrical safety distance should be determined in accordance with relevant regulations.
b. There should be no coarse metal components within a distance of 1.1 times the reactor diameter from the reactor center and 0.5D from the end face of the upper and lower star frame. For large metal components and closed-loop metal components, the distance should be increased. There shall be no reinforcement and other metal members forming closed loops in the foundation under the reactor base frame.
c. When several sets of products need to be installed together, the net distance of each product shall take into account the electrical safety distance and the alternating magnetic field safety distance, and choose the greater between them. In order to avoid large influence (mutual inductance effect) between alternating magnetic fields of two products and serious change of reactor parameters, at least 1.7 times of the net distance between two reactor centers should be maintained.
d. If the reactor is installed outdoors or in a spacious workshop, there is no need for special ventilation equipment. For the reactor installed in a closed chamber, in order to ensure its heat dissipation conditions, air pumping devices should be installed in the small chamber.
2. Installation precautions
a. dry hollow reactor can be installed in two ways: stacked type and divided type, which must be installed in strict accordance with the specified installation mode, that is, the divided type of products can not be installed into stacked type or the stacked type of products can be separated by themselves to install components, so as not to change the reactor parameters and lead to failure to meet the requirements or burn the reactor. For stacked reactors, the bottom-up installation sequence should be strictly in accordance with the requirements of the installation steps, not arbitrarily reversed.
b. The reactor may vibrate or swing slightly when it is impacted by short circuit current, which is a normal phenomenon, so the reactor outlet terminal and the external connection must avoid complete steel connection, it is best to use cable under possible conditions, if it is necessary to use hard bus, the bus should also form a buffer transition bend.
c. The connecting bolts of the reactor and the supporting porcelain bottle are made of non-magnetic materials. Stainless steel bolts, nuts and washers have been provided with the product before delivery.
3. Installation steps for three-phase stacked reactors
a. Install the channel steel base under the porcelain bottle of the ground pillar with fastening bolts;
b. Install the C-phase reactor coil on the porcelain bottle of the ground pillar on the channel steel base with stainless steel screws. Add a rubber cushion in the middle and tighten it (if the gap between the coil and the porcelain bottle is too large, you can add a rubber cushion to adjust it);
c. Place the C-phase coil which has been installed with the porcelain bottle of the ground pillar on the embedded steel plate of the reactor foundation according to the installation position and the direction of the incoming and outgoing lines and weld it firmly;
d. Install the rubber pad, interphase pillar porcelain bottle, rubber pad and B-phase coil upward in turn, and tighten them (if the gap between the coil and porcelain bottle is too large, rubber pad can be added to adjust);
e. Install the rubber pad, interphase pillar porcelain bottle, rubber pad and A-phase coil upward in turn, and tighten them (if the gap between the coil and porcelain bottle is too large, add rubber pad to adjust them);
f. After the reactor coil is installed, check whether the fasteners are connected reliably and whether the positions of the inlet and outlet terminals are correct.
4. Install reactors in three-phase horizontal layout
a. Install the channel steel base under the porcelain bottle of the ground pillar with fastening bolts;
b. Install the coil of A, B and C phase reactor on the porcelain bottle of the ground pillar of the channel steel base with stainless steel screws. Add a rubber pad in the middle and tighten it (if the gap between the coil and the porcelain bottle is too large, you can add a rubber pad to adjust it);
c. According to the installation position and the direction of incoming and outlet lines, the A, B and C phase coils which have been installed with the porcelain bottles of the ground pillar are respectively placed on the embedded steel plate of their respective reactor foundation and welded securely;
f. After the reactor coil is installed, check whether the fasteners are connected reliably and whether the positions of the inlet and outlet terminals are correct.
5. Reactor installation steps of two phase stack and one phase horizontal layout
a. Install the channel steel base under the porcelain bottle of the ground pillar with fastening bolts;
b. Install the coil of A and C phase reactor on the porcelain bottle of the ground pillar of the channel steel base with stainless steel screws, and add a rubber pad in the middle and tighten it (if the gap between the coil and the porcelain bottle is too large, you can add a rubber pad to adjust it);
c. Place the A and C phase coils that have been installed with porcelain bottles of the ground pillar on the embedded steel plate of the reactor foundation according to the installation position and the direction of the inlet and outlet lines and weld them firmly;
e. Install the rubber pad, interphase pillar porcelain bottle, rubber pad and B-phase coil upward on the C-phase reactor coil, and tighten (if the gap between coil and porcelain bottle is too large, rubber pad can be added to adjust);
f. After the reactor coil is installed, check whether the fasteners are connected reliably and whether the positions of the inlet and outlet terminals are correct.

10. Operation and maintenance

1. Before the reactor is put into operation, each heat dissipating airway should be checked to ensure that each heat dissipating airway is unimpeded. If foreign bodies are found blocking the airway, they should be removed in time.
2. The reactor should be inspected frequently and recorded during operation. If the reactor is found to have current suspension, it should immediately quit the operation to prevent accidents, and inform the sales department of the company.
3. When the reactor is put into operation, the ambient temperature should not be lower than the allowable lower limit temperature. When the ambient temperature exceeds the allowable upper limit temperature, the reactor should stop running.

 

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