AWG gauge
Conductor
Diameter Inches
Conductor
Diameter mm
Ohms per 1000 ft
Ohms per km
Maximum amps for chassis wiring 裸線
Maximum amps for
power transmission
Maximum freqency for
100% skin depth for solid conductor copper
OOOO
0.46
11.684
0.049
0.16072
380
302
125 Hz
OOO
0.4096
10.40384
0.0618
0.202704
328
239
160 Hz
OO
0.3648
9.26592
0.0779
0.255512
283
190
200 Hz
0
0.3249
8.25246
0.0983
0.322424
245
150
250 Hz
1
0.2893
7.34822
0.1239
0.406392
211
119
325 Hz
2
0.2576
6.54304
0.1563
0.512664
181
94
410 Hz
3
0.2294
5.82676
0.197
0.64616
158
75
500 Hz
4
0.2043
5.18922
0.2485
0.81508
135
60
650 Hz
5
0.1819
4.62026
0.3133
1.027624
118
47
810 Hz
6
0.162
4.1148
0.3951
1.295928
101
37
1100 Hz
7
0.1443
3.66522
0.4982
1.634096
89
30
1300 Hz
8
0.1285
3.2639
0.6282
2.060496
73
24
1650 Hz
9
0.1144
2.90576
0.7921
2.598088
64
19
2050 Hz
10
0.1019
2.58826
0.9989
3.276392
55
15
2600 Hz
11
0.0907
2.30378
1.26
4.1328
47
12
3200 Hz
12
0.0808
2.05232
1.588
5.20864
41
9.3
4150 Hz
13
0.072
1.8288
2.003
6.56984
35
7.4
5300 Hz
14
0.0641
1.62814
2.525
8.282
32
5.9
6700 Hz
15
0.0571
1.45034
3.184
10.44352
28
4.7
8250 Hz
16
0.0508
1.29032
4.016
13.17248
22
3.7
11 k Hz
17
0.0453
1.15062
5.064
16.60992
19
2.9
13 k Hz
18
0.0403
1.02362
6.385
20.9428
16
2.3
17 kHz
19
0.0359
0.91186
8.051
26.40728
14
1.8
21 kHz
20
0.032
0.8128
10.15
33.292
11
1.5
27 kHz
21
0.0285
0.7239
12.8
41.984
9
1.2
33 kHz
22
0.0254
0.64516
16.14
52.9392
7
0.92
42 kHz
23
0.0226
0.57404
20.36
66.7808
4.7
0.729
53 kHz
24
0.0201
0.51054
25.67
84.1976
3.5
0.577
68 kHz
25
0.0179
0.45466
32.37
106.1736
2.7
0.457
85 kHz
26
0.0159
0.40386
40.81
133.8568
2.2
0.361
107 kH
27
0.0142
0.36068
51.47
168.8216
1.7
0.288
130 kHz
28
0.0126
0.32004
64.9
212.872
1.4
0.226
170 kHz
29
0.0113
0.28702
81.83
268.4024
1.2
0.182
210 kHz
30
0.01
0.254
103.2
338.496
0.86
0.142
270 kHz
31
0.0089
0.22606
130.1
426.728
0.7
0.113
340 kHz
32
0.008
0.2032
164.1
538.248
0.53
0.091
430 kHz
Metric 2.0
0.00787
0.200
169.39
555.61
0.51
0.088
440 kHz
33
0.0071
0.18034
206.9
678.632
0.43
0.072
540 kHz
Metric 1.8
0.00709
0.180
207.5
680.55
0.43
0.072
540 kHz
34
0.0063
0.16002
260.9
855.752
0.33
0.056
690 kHz
Metric 1.6
0.0063
0.16002
260.9
855.752
0.33
0.056
690 kHz
35
0.0056
0.14224
329
1079.12
0.27
0.044
870 kHz
Metric 1.4
.00551
.140
339
1114
0.26
0.043
900 kHz
36
0.005
0.127
414.8
1360
0.21
0.035
1100 kHz
Metric 1.25
.00492
0.125
428.2
1404
0.20
0.034
1150 kHz
37
0.0045
0.1143
523.1
1715
0.17
0.0289
1350 kHz
Metric 1.12
.00441
0.112
533.8
1750
0.163
0.0277
1400 kHz
38
0.004
0.1016
659.6
2163
0.13
0.0228
1750 kHz
Metric 1
.00394
0.1000
670.2
2198
0.126
0.0225
1750 kHz
39
0.0035
0.0889
831.8
2728
0.11
0.0175
2250 kHz
40
0.0031
0.07874
1049
3440
0.09
0.0137
2900 kHz
DOE refers to DEPARTMENT OF ENERGY The heating capacity should be obvious. Here a link to a Heating Fuel Comparison Chart. May give you some insight. http://www.eia.doe.gov/neic/experts/heatcalc.xls
Ideally true, but seldom so. The vast majority of resistance meters use current to measure resistance and just use V=IR to give R - the resistor is in a circuit carrying current. The only method that does not have a current through the resistance, it actually relies on the fact, is a Wheatstone bridge. The most important reason for not having a current is that you will be using a current in most cases, to meaure the resistance. Current from another source will screw the reading. Also, with a current flowing, you are not measuring resistance - you are measuring impedance - a combination of inductance and resistance.
You do not have to give out this information. You can just tell them about your current role at the business.
The battery can supply an amount of electric charge measured in milliampere-hours, which expresses its capacity to supply a load of a number of milliamps for a number of hours. The idea is that if the load current is high, the battery lasts for less time, so the current times the time makes good measure of the capacity. It is also common practice to measure larger batteries in amp-hours, and there are 1000 mAH in one AH. This measure is a nominal one because in practice a high current load will give a lower AH capacity than when the load is small. Multiplying the voltage by the AH capacity gives the watt-hour capacity, which measures how much energy the battery can supply. This measures is also only a nominal only because as the battery runs down its voltage reduces.
putting cells in series gives you a higher voltage but at the same current rating. putting cells in parallel gives you the same voltage but at a higher current rating. series parallel can give you both..
The carrying capacity of some of the early snowmobiles was 22 people.
plz give me a chart of sixth pay commission report .give me new chart on 29 august 2008
DOE refers to DEPARTMENT OF ENERGY The heating capacity should be obvious. Here a link to a Heating Fuel Comparison Chart. May give you some insight. http://www.eia.doe.gov/neic/experts/heatcalc.xls
can i see the organization chart
what chart did u you use in the project
You decide this because a t chart is when you give details about something so if your doing t chart that's when you decide to do a t chart
A current-carrying wire doesn't have a magnetic dipole moment because the magnetic field generated by the current flowing through the wire is a result of the collective motion of the moving charges, rather than individual aligned dipoles. The magnetic field produced by a current in a wire forms loops around the wire and does not exhibit a net alignment of magnetic poles to give it a magnetic dipole moment.
An exploded chart is a pie chart where one or more of the slices of the pie are separated, just to give more emphasis to them.
Please rewrite. We don't have the chart and can't give an answer.
I can't give you a chart. You'll have to ask a web browser for that.
Ideally true, but seldom so. The vast majority of resistance meters use current to measure resistance and just use V=IR to give R - the resistor is in a circuit carrying current. The only method that does not have a current through the resistance, it actually relies on the fact, is a Wheatstone bridge. The most important reason for not having a current is that you will be using a current in most cases, to meaure the resistance. Current from another source will screw the reading. Also, with a current flowing, you are not measuring resistance - you are measuring impedance - a combination of inductance and resistance.
When creating the chart, select the headings with the data and they will automatically be included. If you've already created the chart, go to the Select Data option and you can give each series a name and have a legend on the chart which will identify each bar.When creating the chart, select the headings with the data and they will automatically be included. If you've already created the chart, go to the Select Data option and you can give each series a name and have a legend on the chart which will identify each bar.When creating the chart, select the headings with the data and they will automatically be included. If you've already created the chart, go to the Select Data option and you can give each series a name and have a legend on the chart which will identify each bar.When creating the chart, select the headings with the data and they will automatically be included. If you've already created the chart, go to the Select Data option and you can give each series a name and have a legend on the chart which will identify each bar.When creating the chart, select the headings with the data and they will automatically be included. If you've already created the chart, go to the Select Data option and you can give each series a name and have a legend on the chart which will identify each bar.When creating the chart, select the headings with the data and they will automatically be included. If you've already created the chart, go to the Select Data option and you can give each series a name and have a legend on the chart which will identify each bar.When creating the chart, select the headings with the data and they will automatically be included. If you've already created the chart, go to the Select Data option and you can give each series a name and have a legend on the chart which will identify each bar.When creating the chart, select the headings with the data and they will automatically be included. If you've already created the chart, go to the Select Data option and you can give each series a name and have a legend on the chart which will identify each bar.When creating the chart, select the headings with the data and they will automatically be included. If you've already created the chart, go to the Select Data option and you can give each series a name and have a legend on the chart which will identify each bar.When creating the chart, select the headings with the data and they will automatically be included. If you've already created the chart, go to the Select Data option and you can give each series a name and have a legend on the chart which will identify each bar.When creating the chart, select the headings with the data and they will automatically be included. If you've already created the chart, go to the Select Data option and you can give each series a name and have a legend on the chart which will identify each bar.