NATL INST. OF STAND & TECH

AlllDS T73TD7 igg

REFERENGt Publications

^~S

o. NBS TECHNICAL NOTE 1185

U.S. DEPARTMENT OF COMMERCE/National Bureau of Standards

-QC—

100

. U5753

I Jo . 118

1934

J

Bibliography of

Data on Electrical

Breakdown in Gases
NATSONAL BUREAU OF STANDARDS

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NATIONAL BUREAtf OF STANDARDS

LIBRABY Bibliography of Data on -^^i'

Electrical Breakdown in Gases Qc

\oo

Ho. i\^^

R. J. Van Brunt 1 R 2 4-

W. E. Anderson

Center for Electronics and Electrical Engineering

National Engineering Laboratory

National Bureau of Standards

Washington, DC 20234

Sponsored by:

Office of Electric Energy Systems

Department of Energy

Washington, DC 20585

*<"fCAU O*

U.S. DEPARTMENT OF COMMERCE, Malcolm Baldrige, Secretary

NATIONAL BUREAU OF STANDARDS, Ernest Ambler, Director

Issued April 1984
National Bureau of Standards Technical Note 1185

Natl. Bur. Stand. (U.S.),Tech. Note 1185, 170 pages (Apr. 1984)

CODEN: NBTNAE

U.S. GOVERNMENT PRINTING OFFICE

WASHINGTON: 1984

For sale by the Superintendent of Documents, U.S. Government Printing Office, Washington, DC 20402
TABLE OF CONTENTS

Page

LIST OF TABLES iv

Abstract 1

I, Introduction 1

II, Criteria for Selection 3

II. Arrangement of Bibliography 5

IV. Definitions of Codes

and Notations 5

V. Acknowledgments 9

VI. Gas Index 10

VII. Author Index 102

VIII. References 122

IX. Technical Conference Proceedings 164

111
LIST OF TABLES

Page

Table I. Definition of Category Code 6

IV
BIBLIOGRAPHY OF DATA ON ELECTRICAL BREAKDOWN IN GASES

R. J. Van Brunt and W. E. Anderson

This report consists of a bibliography of

currently published data on electrical breakdown

in gases. The bibliography contains a list of

archival papers and books published since 1950, an

index indicating the references that give

particular types of data for each gas, an author

index, and a list of relevant, regular technical

conferences. The citations given in the

bibliography contain experimental or theoretical

data on breakdown which include:

1) sparking potentials;

2) breakdown voltages;

3) critical fields, or field-to-gas density

ratios;

4) corona inception voltages;

5) voltage-time characteristics;

6) relative and absolute dielectric

strengths; and

7) breakdown probabilities.

Types of data considered include those which

apply to uniform and nonuniform fields; ac, dc,

and impulse voltages; and possible effects of

particles, surfaces, interfaces, and corona. This

bibliography is intended to serve as a guide in

locating data on breakdown which are most relevant

to particular applications.

Key words: bibliography; critical fields; corona

onset; discharge inception; electrical breakdown;

gases; sparking potentials.

I . Introduction

This bibliography is intended to serve as a guide to

the currently available published data on electrical

breakdown for gases and vapors. It is generally recognized

that although an enormous quantity of data exists, it is

often difficult to locate those most applicable to a given

set of conditions. This is due to the complex nature of

data on electrical breakdown which depend on a broad range

of conditions including widely different gas pressures and

temperatures, gas composition, electrode materials,

electrode configurations, voltage waveforms, proximity of

solid dielectrics, etc. All of these parameters can be

expected to have a significant influence on the electrical

breakdown characteristics of a system. Thus, for example.
data obtained for anif orm-electr ic-f ield configurations

cannot generally give reliable predictions of breakdown in

highly nonuniform electric-field configurations. Similarly

data found for slowly varying or constant electric fields

may not be applicable to situations where there are rapidly

varying fields. In general, the breakdown potential of an

electrode gap is not solely a property of the insulating gas

medium. With this complexity in mind, this bibliography is

designed to help simplify the task of finding data which

correspond to configurations or operating conditions that

most nearly match those for particular applications of

interest.

The information contained in this bibliography exists

in computerized form which can be easily updated and

periodically printed out as additional relevant references

are found. Revised and updated versions of this

bibliography, either as computer printout or in floppy disk

form, will periodically be made available upon request to

the National Bureau of Standards, Electrosystems Division,

Washington, DC 20234.

The bibliography in its present form is believed to

include most of the major archival papers and books

published since 1950 which contain data on electrical

breakdown for insulating gases. All of the references

listed have been examined to determine that they do indeed

contain breakdown data. In the category of electricalbreakdown data are included:

1) sparking potentials;

2) breakdown voltages;

3) critical fields, or field-to-gas density ratios;

4) corona inception voltages;

5) voltage-time characteristics;

6) relative and absolute dielectric strengths; and

7) breakdown probabilities.

These are all closely related quantities in the sense that

they indicate the applied potential or electric field at

which a sufficiently high rate of ionization occurs so that

the conductivity of the gas reaches the point where

discharge initiation or electrical breakdown will occur with

significant probability. There are, however, distinctions

among these quantities which are not always clearly defined

or discussed in the literature, and no attempt has been made

to address these issues in preparing the bibliography.

As an example, corona inception (also called

"discharge inception" or "partial discharge inception")

usually refers to the onset of a self-sustaining, localized

discharge near the most highly stressed electrode in a nonuniform-electr ic-f ield gap. Although a corona discharge

enhances the conductivity of the gas, it is not usually
considered to be a true breakdown because it does not bridge

the electrode gap, i.e. , it is not associated with

ionization of the gas along the entire distance between two

electrodes. In most papers, the distinction between corona

inceptions and breakdown voltages is made quite clear and,

as a general rule, corona inception will occur at a lower

voltage than complete breakdown in nonunif orm-f ield gaps.

It is nevertheless evident that in some cases there are

disagreements or uncertainties in the definitions of the

quantities considered here for inclusion as breakdown data.

"Dielectric strength" in most cases, but not always,

corresponds to breakdown for uniform, static-electric-field

configurations under gap and pressure conditions where the

similarity law holds, namely that the breakdown voltage is a function only of the product of gas pressure and electrode

gap spacing. Data on critical-field to gas-density ratios

also presumably apply only to uniform-electric field

situations inasmuch as they are usually derived from

measurements or calculations of ionization growth or

ionization and attachment coefficients for gases at low

pressures in uniform fields. The extent to which these data

may be reliably applied to nonuniform-f ield conditions or to

gas pressures different from those at which the coefficients

were determined is generally unknown. Caution should be

exercised in the application of such data to configurations

that deviate even slightly from uniformity such as sphere

gaps or as might result from electrode surface

irregularities. The effects of minute surface protrusions,

small particles, dust, surface charges, etc., which can

perturb the electric field in a gas are discussed in a number of references included. Where possible these have

been indicated by the code assigned to each reference as

discussed below.

II . Criteria for Selection

The references cited in this bibliography were selected

according to the following criteria:

a) they correspond to an archival publication;

b) they contain experimental or theoretical data on

breakdown or corona inception voltages or fields;

c) they include gases and conditions considered

applicable to electrical insulation; and

d) they have been published since 1950.

The list has been restricted to archival publications,

i.e., journal publications and books, because: a) these are

readily available to almost everyone; and b) data presented

in these articles have presumably been subjected to critical

review and thus have a greater likelihood of being correct.

There are, of course, many conference proceedings and

technical reports which may be assumed to contain useful and
reliable data on breakdown. On the other hand, data

presented at conferences or in reports, unless previously

published, are generally considered to be preliminary.

Also, there are many conference proceedings and technical

reports that are not widely distributed and thus may be

difficult to obtain. Some of the major regular technical

conferences where data on gas breakdown have been presented

and for which proceedings or abstracts were usually

published are listed here separately (Section IX), No

attempt has been made to identify specific papers or data

given at these conferences.

All of the papers listed have been examined to verify

that they do indeed contain data on electrical breakdown as

defined in the Introduction, No attempt was made to

evaluate critically any data given in these references as a basis for selection. It is clear that in some cases there

are obvious disagreements and disputes which may or may not

have been resolved. Included here are all data independent

of their known or assumed reliability. Papers which deal

only with the phenomenology or physics of gas breakdown were

not included despite their possible importance in adding to

our understanding of the mechanisms involved. Again this

bibliography is intended to be an aid to those in need of

data on breakdown.

The list has been restricted to gases considered

relevant to electrical-insulation technology. Gases such as

metal vapors which are unlikely components in gaseous

insulation have been excluded unless they happen to have

been studied along with other gases which are of relevance.

There are, however, metal vapors like Hg which might be

unavoidable components or important contaminants in gaseous

insulation. Serious consideration will be given to

including these in future versions of the bibliography.

The data in the bibliography cover a wide range of gas

pressures and temperatures, and although in some cases

significant and interesting dependences on these parameters

are observed, no attempt is made to indicate the ranges

considered in each case. Thus, for example, two or more

references indicated as having data on static-uniform-field

breakdown for N^ may actually correspond to results obtained

at quite different pressures and temperatures.

The electrode and field configurations considered vary

over a wide range, e,g,, from small uniform field gaps to

large, practical electric-power-line simulations. The

results for static, uniform field conditions are generally

considered to be more fundamental in indicating the

dielectric strength for coll is ional-ionizat ion processes.

It is clear, however, that the gas will generally behave

quite differently under less uniform-gap and t ime-vary ingvoltage conditions and, therefore, because results for these
conditions are of considerable importance in the design of

the insulating systems, their inclusion was considered

imperative.

For alternating voltages, only data on breakdown at the

power frequencies of 60 Hz and 50 Hz have been included. It

might be argued that measurements or calculations performed

for higher frequencies are also relevant to insulation

applications. Perhaps these should be included in future

versions of this bibliography. They were arbitrarily

excluded here because of difficulties in agreeing on an

acceptable way of categorizing these data, and because of

the limited usefulness of this kind of information for the

design and testing of electrical insulation, particularly in

electric-power applications.

The exclusion of papers and books published before 1950

should not be interpreted as a denigration of these works.

Although it is true that some earlier studies have since

been supplanted by more recent works, there certainly

remains much valuable information on breakdown from

investigations carried out before 1950. It was essential to

place some restrictions on the number of references to be

included, and it seemed unnecessary to include papers which

have already been adequately discussed in the previous

reviews listed here. The absence of any publications which

might be perceived as meeting the above criteria is most

likely due to the fact that they have not been found.

Hopefully, such omissions can be corrected in future

versions of this bibliography.

III. Arrangement of Bibliography

The report is arranged in four parts: an index to the

bibliography which indicates the types of breakdown data

available for each gas; an author index; a list of citations

with assigned numbers determined by the alphabetical order

of principal author; and a list of relevant technical

conferences. The index lists the gases and gas mixtures

alphabetically according to the stoichiometric chemical

formulae. The symbols "x" beside the reference numbers in

the index indicate that they contain information on the

influences of particles, surfaces, interfaces, or corona on

breakdown.

IV. Definitions of Codes and Notations

All references that are cited here were entered into a computer with a corresponding code which gives an indication

of the type of data which they contain. The code consists

of two parts. The first part gives the gas or gases that

have been included according, where possible, to their

chemical formulae, and the second part gives the nature of

the investigation. Included in the latter are:
a) an identifier indicating that the work is either

experimental, theoretical, a review, or some

combination of these;

b) an identifier indicating if the electric field

configuration is either uniform or nonuniform;

c) an identifier indicating the type of voltages

applied, i.e., either dc, ac (at power frequencies

of 60 or 50 Hz), or impulse; and

d) an identifier of special effects considered, which

was limited to:

1) surface effects;

2) particle effects;

3) interface effects; and

4) corona.

The computer code used in the categorization of each

reference is defined in Table I. The code assigned to each

reference consists of at least one entry each from sets 1-3,

and one or more possible entries from set 4 as indicated in

the Table. These codes do not appear explicitly in the

present printed version, although they are implied in the

index. The codes do, however, appear in the computer disk

file format. It is important to emphasize that the codes

have been assigned to references and not to the gases.

References which include more than one gas may not

necessarily include the same types of data for all gases.

This is especially likely in review articles. Therefore,

the index should be interpreted only as indicating the

possible types of data which might be available for each

gas. The actual existence of such data can, of course, only

be verified by examination of the references cited.

Table I. Definition of Category Code

Set Code Category

1 E Experimental

T Theoretical

R Review

2 U Uniform Field

N Nonuniform Field

3 D Direct Voltage

A Alternating Voltage

I Impulse

4 S Surface Effects

P Particle Effects

F Interface Effects

C Corona
It should be noted that special difficulties were often

encountered in attempting to decide on the proper code to be

entered for each citation. Attention should be drawn to

some of these. First it should be clear that all papers fit

into one or more of the categories of experimental,

theoretical, or review. There are cases where more than one

of these applied. For some of these cases, however, only

one category may be indicated. This was generally not an

oversight, but rather a judgment based upon what appeared to

be the predominant emphasis of the work.

There was another difficulty sometimes encountered in

attempting to decide if a particular work applied to either

uniform or nonuniform fields. Results obtained in weakly

nonuniforra-f ield gaps, e.g., sphere-sphere gaps, are often

referred to in the literature as "uniform-field breakdown."

Some authors, however, would disagree with this inference

and prefer a stricter definition of uniformity as applied to

gaps used for breakdown measurements. In cases where,

despite the claims of the authors, doubt seemed to exist

about the appropriateness for inclusion under uniform-field

breakdown, both the uniform and nonuniform field categories

were assigned even though the results for only one electrode

configuration may have been reported.

Data included here under the category of alternating

voltage (ac) relate only to the power frequencies of 50 or

60 Hz. Sometimes the references indicated in this category

also present data at other frequencies. These, however,

were not considered in determining the codes which were

assigned.

In considering the category of impulse breakdown, no

distinction was made as to the type of impulse voltage used.

Thus, data in this category may include standard lightning

and switching impulses as well as other non-standard impulse

shapes and repetition rates. They may also include impulses

superimposed on dc or ac voltages.

In the category of surface effects are included

investigations of the dependence of breakdown on properties

of the electrode surfaces such as material roughness. All

other "surface" effects are placed in the category of

interface effects which mainly have to do with breakdown in

the gas near or along a solid insulating surface. The

category of particle effects includes investigations of the

role of both conducting and non-conducting solid particles

on breakdown in a gas. The positions of the particles,

although significant, have not been specified here. The

particles may either be suspended in the gas, attached to

electrodes or interface surfaces, or be in random motion in

the discharge gap.
If papers are included under the category of corona,

this usually means that data on corona inception or onset

voltages are given. In a few special cases it may indicate

that effects of corona on breakdown have been considered or

evaluated. In general, corona-onset voltages give another

measure of the dielectric strength of the gas can often be

more easily predicted theoretically than the breakdown

voltage in nonuniform-electr ic-f ield gaps.

The gases are denoted and listed alphabetically

according to their presumed stoichiometric formulae with

notation given if possible to indicate molecular structure.

All isomers are grouped together in the index listing. For

some of the more complex molecular species, such as the

fluorocarbon and hydrocarbon gases, there is a lack of

consistency in denoting these by chemical formulae. In some

cases only names of the compounds were given without

indication of their molecular structures. In a few cases it

was admitted that the correct structure was unknown. Trade

names or non-standard terms have also been used to denote

the gases studied. Special difficulties appeared in the

designations of isomers. Sometimes only the molecular

stoich iometry , or relative proportions of the atomic

constituents were given without regard to the actual

molecular structure. Because of these difficulties, the

identities of some of the organic molecular species given

here may be questionable. They are listed here according to

their presumed stoichiometric formulae with indications

given, where possible, about the molecular structure. In

some cases the specific isomers considered may not be

correctly indicated here, and it may be necessary to examine

the original references to determine the possible correct

molecular structure. It should also be cautioned that for

data obtained at very high temperatures where molecular

dissociation can occur, the identity of molecular gases may

be brought into question due to the possible presence of

atomic species and free radicals.

For gas mixtures, the constituents are listed in

alphabetical order independent of their known relative

concentrations, e.g., c-C.F„ + N^ + SF-. and CO2 + He + N^.

Air, however, is treated as a special mixture and is simply

denoted here as AIR. The mixture N^ + o which is also

listed may or may not contain the proper proportions of Nand Op to be considered as "air."

In the case of breakdown in air, the effect of humidity

can be quite important. When the gas is here denoted by

AIR + H2O, it can be assumed that the data apply to humid

air in which the water vapor content is known and specified.

If the gas is simply denoted as AIR, then it was either

indicated in the paper as being "dry" air, or the moisture

content was not explicitly defined. While most authors

indicate whether or not the air is "dry," some do not.
For this bibliography electrical-breakdown data in

composite insulation have been included only if the gas is a major, distinct, and well-separated component. Thus, for

example, breakdown in solids impregnated with gases has not

been included. The possible presence of other nongaseous

insulating materials has been indicated, if possible, by

inclusion in one or more of the categories corresponding to

surface, particle, or interface effects.

V. Acknowledgments

This report was prepared at the request and

encouragement of the IEEE Insulation Society Technical

Committee S-32-11 on Gaseous Dielectrics, We would like to

express our appreciation for the valuable suggestions and

contributions of the various members of the committee,

especially Dr. S, J. Dale, Committee Chairman, Westinghouse

Corp.; Dr. R. Hackam, University of Windsor, Canada;

Dr. C. Miller, General Electric Company; Dr. W. Pfeiffer,

Technische Hochschule, Darmstadt, West Germany;

Dr. A. Pedersen, The Technical University, Lyngby, Denmark;

Dr. J. K. Nelson, Rensselaer Polytechnic Institute, Troy,

NY; and Dr. K. D. Srivastava, University of Waterloo,

Canada.
VI, Gas Index

AIR

PARTICLE SURFACE INTERFACE CORONA

EXPERIMENTAL

DC UNIFORM 4

37

42

58

61

71

88

106

117

126

138

140

145

148

151

164

168

173

193

194

243

262

263

266

273

279

313

326

357

360

364

381

389

390

395

399

408

442

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

DC NONUNIFORM 19 X

38 X X

50

71

94 X

118

141 X

142 X

149 X

160 X

10
AIR (cont.

)

AC

AC

PARTICLE SURFACE INTERFACE CORONA

) 162 X

164

168 s X

174 X

193 X

194 X

204

219

237

266

279 X

288

293 X

307

313 X

325

326

328 X

332 X

333

357 X

378 X

379 X

396 X

407 X

415 X

421 X

433

440 X

UNIFORM 36 X

37 X

47 X

70 X

71

72 X

168 X

173 X

194 X

208 X X X

279 X

313 X

326

392

395 X

NONUNIFORM 22 X

23 X

47 X

50

70 X

71

72 X

87

94 X

168 X

11
PARTICLE SURFACE INTERFACE CORONA

AIR (cont.

)

175 X

176 X

182 X X

194 X

204

208

219

XXX

231 X

257 /

2 79 X

313 X

314 X X

325

326

328 X

358 X

375 X

407 X

440 X

453

IMPULSE UNIFORM 47 X

70 X

71

72 X

117 X

139

140

148

187

296

313 X

341

381

391

405

455

IMPULSE NONUNIFORM 2

5

6

J

11 X

12 X

20 X

26

27 X

31

35 X X

47 X

50

70 X

71

72 X

74

75

12
AIR (cont.

)

100

118

PARTICLE SURFACE INTERFACE CORONA

146

147

149 X

159

175 X

176 X

177

179 X

181 X

189

191

210

213

220 X

237

247

248 X X

255

256

257

259

286

287

288

289 X

290

291

293 X

307

313 X

327

332 X

339

340

341

370 X

371 X

375 X

380

382 X

388

407 X

409 X

411 X

412

418 X

420

427

429

431

441 X

443 X

13
AIR (cont.

)

THEORETICAL

DC UNIFORM

DC NONUNIFORM

AC

AC

UNIFORM

NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

444

445

448

449

452

453

455

463

152

163

205

207

209

232

268

273

374

414

442

1

19

163

204

207

216

232

281

332

335

337

346

385

414

36

204

257

297

5

7

13

147

189

192

210

211

235

255

257

265

332

383

384

PARTICLE SURFACE INTERFACE CORONA

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

14
AIR (cont.

)

REVIEW

DC UNIFORM

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

45

48

66

71

73

88

96

105

119

148

163

209

244

260

264

285

334

368

422

435

45

48

66

71

73

96

158

163

204

234

244

260

264

285

334

422

447

45

66

70

71

73

96

105

285

422

45

66

70

71

73

96

PARTICLE SURFACE INTERFACE CORONA

X

X X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

15
PARTICLE SURFACE INTERFACE CORONA

AIR (cont.

)

IMPULSE UNIFORM

IMPULSE NONUNIFORM

204

212

222

234

257

285

422

447

45

70

71

73

96

148

244

285

422

35

45

70

71

73

96

212

221

222

234

244

257

285

422

447

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

IR+CCl^F^

REVIEW

DC UNIFORM 96 X X X

DC NONUNIFORM 96 X X X

AC UNIFORM 96 X X X

AC NONUNIFORM 96 X X X

IMPULSE UNIFORM 96 X X X

IMPULSE NONUNIFORM 96 X X X

AIR+CO^

EXPERIMENTAL

DC NONUNIFORM 160

AIR+H^

EXPERIMENTAL

DC UNIFORM 262

AIR+H^O

EXPERIMENTAL

DC UNIFORM 8

58

16
PARTICLE SURFACE INTERFACE CORONA

AIR+H-O (cont.

)

61 X

238

243

357 X

361

381

387

393

394

DC NONUNIFORM 160

162

328

357

387

433

X

X

X

X

AC NONUNIFORM 176

328

375

386

453

X

X

X

IMPULSE UNIFORM 187

381

387

IMPULSE NONUNIFORM 2

9

10

11 X

35 X X

69

176 X

177

179 X

180

226

240

241

247

248 X X

287

318 X

371 X

375 X

386

387

388

410

420

426

428

430

431

432

439

444

X

X

17
PARTICLE SURFACE INTERFACE CORONA

AIR+H2O (cont.)

REVIEW

DC UNIFORM

DC NONUNIFORM

AC

AC

UNIFORM

NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

446

453

45

96

244

285

422

45

96

244

285

422

447

45

96

285

422

45

96

222

285

422

447

45

96

244

285

422

35

45

96

222

244

285

422

447

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

AIR+N2

EXPERIMENTAL

DC UNIFORM

REVIEW

DC UNIFORM

88

88

X

X

AIR+NO+NO

EXPERIMENTAL

DC NONUNIFORM 160

AIR+SF,

EXPERIMENTAL

DC UNIFORM 88

245

273

276

18
AIR+SF^ (cont.

)

b

278

399

DC NONUNIFORM 245

274

AC NONUNIFORM 133

IMPULSE UNIFORM 245

IMPULSE NONUNIFORM 133

245

382

443

THEORETICAL

DC UNIFORM 273

278

316

DC NONUNIFORM 316

REVIEW

DC UNIFORM 88 X

251 X X

270 X X

435

DC NONUNIFORM 251 X X

270 X X

AC UNIFORM 251 X X

AC NONUNIFORM 251 X X

IMPULSE UNIFORM 270 X X

IMPULSE NONUNIFORM 270 X X

Ar

EXPERIMENTAL

DC UNIFORM 81

82

157 X

164

196

197

198

199

224 X

292

329

353

389

390

DC NONUNIFORM 107

149

164

170 X

309

AC NONUNIFORM 67

IMPULSE UNIFORM 139 — - 224 X

324 X

IMPULSE NONUNIFORM 149

324 X

PARTICLE SURFACE INTERFACE CORONA

X

X

X

X

X

X

X

X

X

X

X

19
PARTICLE SURFACE INTERFACE CORONA

Ar (cont.

)

THEORETICAL

DC UNIFORM 163

DC NONUNIFORM 163

IMPULSE UNIFORM 324 X

IMPULSE NONUNIFORM 324 X

REVIEWDC UNIFORM 45

64

66

92 X

163

244

253

260

261

264

280

285

334

438

DC NONUNIFORM 45

66

163

244

260

264

285

334

AC UNIFORM 45

66

285

AC NONUNIFORM 45

66

285

IMPULSE UNIFORM 45

92

244

285

X

IMPULSE NONUNIFORM 45

244

285

Ar+C^H

EXPERIMENTAL

DC UNIFORM 198

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

Ar+C^H

EXPERIMENTAL

DC UNIFORM 198

199

20
PARTICLE SURFACE INTERFACE CORONA

Ar+C^H

EXPERIMENTAL

DC UNIFORM 197

Ar+C^Fj,

EXPERIMENTAL

DC UNIFORM 81

Ar+C-jHg

EXPERIMENTAL

DC UNIFORM 196

Ar+C^H

EXPERIMENTAL

DC UNIFORM 199

Ar+n-Cc-H, ^ EXPERIMENTAL

DC UNIFORM 198

DC UNIFORM 199

Ar+C^H

EXPERIMENTAL

DC UNIFORM 199

Ar+n-Cj.H,j.

EXPERIMENTAL

DC UNIFORM 199

Ar+CH.

EXPERIMENTAL

DC UNIFORM 196

Ar+CO^

EXPERIMEI^TAL

DC NONUNIFORM 107

Ar+Cs

EXPERIMENTAL

DC UNIFORM 127

Ar+H

REVIEW

DC UNIFORM 264

DC NONUNIFORM 264

Ar+H^O

REVIEW

DC UNIFORM 244

264

DC NONUNIFORM 244

264

IMPULSE UNIFORM 244

IMPULSE NONUNIFORM 244

X

X

X X

X

X X

X

X X

X X

21
PARTICLE SURFACE INTERFACE CORONA

Ar+He

EXPERIMENTAL

DC UNIFORM 80 X

Ar+Hg

REVIEW

DC UNIFORM 264 X

DC NONUNIFORM 264 X

Ar+Hg+Ne

EXPERIMENTAL

DC UNIFORM 345 X

Ar+K

EXPERIMENTAL

DC UNIFORM 127

Ar+N„

EXPERIMENTAL

DC NONUNIFORM 107 X

REVIEW

DC UNIFORM 264 X

DC NONUNIFORM 264 X

Ar+N +SF^

EXPERIMENTAL

DC UNIFORM 82

Ar+Na

EXPERIMENTAL

DC UNIFORM 127

Ar+Ne

EXPERIMENTAL

DC UNIFORM 77

345

DC NONUNIFORM 107

REVIEW

DC UNIFORM 45

66

244

280

DC NONUNIFORM 45

66

244

AC UNIFORM 45

66

AC NONUNIFORM 45

66

IMPULSE UNIFORM 45

244

IMPULSE NONUNIFORM 45

244

X

X X

X X

X X

X

X X

X X

X

X X

X

X X

X

X X

X

X X

22
PARTICLE SURFACE INTERFACE CORONA

Ar+Op

EXPERIMENTAL

DC NONUNIFORM 107

REVIEW

DC UNIFORM 264

DC NONUNIFORM 264

X

X

Ar+SF,

EXPERIMENTAL

DC UNIFORM 82

BCl^

REVIEW

DC UNIFORM

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

45

285

438

45

285

45

285

45

285

45

285

45

285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

BF^

EXPERIMENTAL

DC UNIFORM 110

DC NONUNIFORM 283

REVIEW

DC UNIFORM 45

438

DC NONUNIFORM 45

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

IMPULSE NONUNIFORM 45

EXPERIMENTAL

DC UNIFORM 367

373

THEORETICAL

DC UNIFORM

C F

iSpJlSlMENTAL

DC UNIFORM

373

315

X

X

X

X

X

ExifiR^^ENTAL

DC UNIFORM 301

23
C F

iip^filMENTAL

DC UNIFORM

PARTICLE SURFACE INTERFACE CORONA

315

EXPERIMENTAL

AC UNIFORM 33

70

AC NONUNIFORM 33

70

IMPULSE UNIFORM 33

70

IMPULSE NONUNIFORM 33

70

REVIEW

DC UNIFORM 32

45

438

DC NONUNIFORM 45

AC UNIFORM 45

70

AC NONUNIFORM 45

70

IMPULSE UNIFORM 45

70

IMPULSE NONUNIFORM 45

70

Mp^^imental

AC UNIFORM 70

AC NONUNIFORM 70

IMPULSE UNIFORM 70

IMPULSE NONUNIFORM

REVIEW

70

DC UNIFORM 45

150

438

DC NONUNIFORM 45

150

AC UNIFORM 45

70

150

AC NONUNIFORM 45

70

150

IMPULSE UNIFORM 45

70

150

IMPULSE NONUNIFORM 45

70

150

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

24
PARTICLE SURFACE INTERFACE CORONA

C CI F

^xp^rImental

DC UNIFORM 114

203

DC NONUNIFORM 114

AC UNIFORM 392

IMPULSE UNIFORM 139

REVIEW

DC UNIFORM 45

73

203

258

285

437

438

DC NONUNIFORM 45

73

258

285

AC UNIFORM 45

73

285

AC NONUNIFORM 45

73

285

IMPULSE UNIFORM 45

73

258

285

IMPULSE NONUNIFORM 45

73

258

285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

CjCl^FEXPERIMENTAL

DC UNIFORM 114

156

DC NONUNIFORM 114

155

THEORETICAL

DC UNIFORM 156

REVIEW

DC UNIFORM 45

DC NONUNIFORM

73

150

258

285

438

45

73

150

258

285

X

X

X

X

X

X

X

25
PARTICLE SURFACE INTERFACE CORONA

C^Cl^F. (cont.)

AC UNIFORM 45 X

73 X

150

285 X X X

AC NONUNIFORM 45

73

150

X

X

285 X X X

IMPULSE UNIFORM 45

73

150

258

X

X

X

285 X X X

IMPULSE NONUNIFORM 45

73

150

258

X

X

X

285 X X X

l,lrl-C,Cl^F^

REVIEW ^ ^ DC UNIFORM 64

1,1,2-C5C1^F^

REVIEW

DC UNIFORM 64

C^Cl^F^+SF,

experimental

dc uniform 156

theoretical

dc uniform 156

SevIe^

dc uniform 73 x

dc nonuniform 73 x

ac uniform 73 x

ac nonuniform 73 x impulse uniform 73 x

impulse nonuniform 73 x

CjClF

EXPERIMENTAL

DC UNIFORM 114

DC NONUNIFORM 114

REVIEW

DC UNIFORM 64

73

253

DC NONUNIFORM 73

AC UNIFORM 73

AC NONUNIFORM 73

X

X

X

26
C^CIF-. (cont. ) IMPULSE UNIFORM 73

IMPULSE NONUNIFORM 73

PARTICLE SURFACE INTERFACE CORONA

X

X

C^CIF

EXPERIMENTAL

DC UNIFORM 114

DC NONUNIFORM 114

AC UNIFORM 392

REVIEW

DC UNIFORM 45

73

150

253

437

438

DC NONUNIFORM 45

73

150

AC UNIFORM 45

73

150

AC NONUNIFORM 45

73

150

IMPULSE UNIFORM 45

73

150

IMPULSE NONUNIFORM 45

73

150

C^CIF^

REVIEW

DC UNIFORM 258

DC NONUNIFORM 258

IMPULSE UNIFORM 258

IMPULSE NONUNIFORM 258

X

X

X

X

Ie^iew

DC UNIFORM 253

C^F-N

EXPERIMENTAL

DC UNIFORM 114

DC NONUNIFORM 114

REVIEW

DC UNIFORM 45

150

280

435

436

437

27
PARTICLE; SURFACE INTERFACE CORONA

C^F-N (cont.

)

438

^D^ NONUNIFORM 45

150

X

AC UNIFORM 45

150

X

AC NONUNIFORM 45

150

X

IMPULSE UNIFORM 45

150

X

IMPULSE NONUNIFORM 45

150

X

C F

^xIerimental

DC UNIFORM 55

63

114

310

DC NONUNIFORM 114

AC UNIFORM 33

72 X

392

457

AC NONUNIFORM 33

72 X

457

' i- .;s .; 460

IMPULSE UNIFORM 33

72 X

IMPULSE NONUNIFORM 33

72 X

THEORETICAL

DC UNIFORM 55

REVIEW

DC UNIFORM 45 X

DC

AC

AC

UNIFORM 45

64

73

150

253

258

435

436

437

438

NONUNIFORM 45

73

150

258

UNIFORM 45

73

150

NONUNIFORM 45

73

150

X

X

28
PARTICLE SURFACE INTERFACE CORONA

CpF, (cont.

)

IHPULSE UNIFORM 45

73 X

150

258 X

IMPULSE NONUNIFORM 45 X

73 X

150

258 X

C^F O

REVIEW

DC UNIFORM 253

C^F,S

REVIEW

dc uniform 253

Experimental

dc uniform 198

201

202

DC NONUNIFORM 169

THEORETICAL

DC UNIFORM 342

343

REVIEW

DC UNIFORM 64

253

258 X

437

438

DC NONUNIFORM 2 58 X

IMPULSE UNIFORM 258 X

IMPULSE NONUNIFORM 258 X

1,1,1-C^H F^+2-C4F.

EXPERIMENTAL

DC UNIFORM 83

1,1,1-C^H F-+2-C.F3

EXPERIMENTAL

DC UNIFORM 85

DC NONUNIFORM 8 5

THEORETICAL

DC UNIFORM 317

1,1,1-CtH,F,+SF^

EXPERIMENTAL

DC UNIFORM 83

85

DC NONUNIFORM 8 5

29
1,1,1-C2H3F3"^SF (cont.)

THEORETICAL

DC UNIFORM 317

PARTICLE SURFACE INTERFACE CORONA

CpH-.N

EXPERIMENTAL

DC UNIFORM 83

REVIEW

DC UNIFORM 64

C^H^N+SF^

EXPERIMEl^TAL

DC UNIFORM 83

CpH.

EXPERIMENTAL

DC UNIFORM 104

198

200

201

202

DC NONUNIFORM 104

REVIEW

DC UNIFORM 45

258

280

DC NONUNIFORM 45

258

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

258

IMPULSE NONUNIFORM 45

258

X

X

X

X

X

X

X

X

X

X

C^H.+Kr

EXPERIMENTAL

DC UNIFORM 200

REVIEW

DC UNIFORM 45

DC NONUNIFORM 45

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

IMPULSE NONUNIFORM 45

C H CI

REVIEW

DC UNIFORM 285

DC NONUNIFORM 285

AC UNIFORM 285

AC NONUNIFORM 285

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

30
1,1-C2H CI

REVIEW

DC UNIFORM

PARTICLE SURFACE INTERFACE CORONA

64

C H O

REVIEW

DC UNIFORM 437

438

CpH^Br

REVIEW

DC UNIFORM

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

C2H CI

REVIEW

DC UNIFORM

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

REVIEW

DC

DC

AC

AC

UNIFORM

NONUNIFORM

UNIFORM

NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

285

285

285

285

285

285

45

285

437

438

45

285

45

285

45

285

45

285

45

285

285

285

285

285

285

285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

CjHg

EXPERIMENTAL

DC UNIFORM

DC NONUNIFORM

114

115

197

201

202

114

115

31
n-C^H

REVIEW

DC UNIFORM 258

DC NONUNIFORM 258

IMPULSE UNIFORM

C F

Experimental

258

impulse nonuniform 258

C^H N

REVIEW

DC UNIFORM 437

438

CpN^

EXPERIMENTAL

DC NONUNIFORM 283

EXPERIMENTAL

DC UNIFORM 114

DC NONUNIFORM 114

REVIEW

DC UNIFORM 45

150

280

435

436

437

438

DC NONUNIFORM 45

150

AC UNIFORM 45

150

AC NONUNIFORM 45

150

IMPULSE UNIFORM 45

150

IMPULSE NONUNIFORM 45

150

DC UNIFORM 21

REVIEW

DC UNIFORM 64

150

253

DC NONUNIFORM 150

AC UNIFORM 150

AC NONUNIFORM 150

IMPULSE UNIFORM 150

IMPULSE NONUNIFORM 150

PARTICLE SURFACE INTERFACE CORONA

X

X

X

X

X

X

X

32
PARTICLE SURFACE INTERFACE CORONA

C-C^Fg

REVIEW

DC UNIFORM 253

C^F^+SF^

THEORETICAL

DC UNIFORM 78

C-jF^+SOp

THEORETICAL

DC UNIFORM 78

C.FgO

EXPERIMENTAL

DC UNIFORM 114

DC NONUNIFORM 114

C F

Experimental

dc uniform 81

114

304

310

DC NONUNIFORM 114

AC UNIFORM 33

70 X

72 X

457

AC NONUNIFORM 33

70 X

72 X

457

460

IMPULSE UNIFORM 33

70 X

72 X

IMPULSE NONUNIFORM 33

70 X

72 X

452

THEORETICAL

DC UNIFORM 65

103

165

DC NONUNIFORM 103

REVIEW

DC UNIFORM 32

45 X

64

65

73 X

150

165

253

33
PARTICLE SURFACE INTERFACE CORONA

C^Fg (cont.) 258 X

436

437

438

DC NONUNIFORM 45 X

73 X

150

258 X

AC UNIFORM 45 X

70 X

73 X

150

AC NONUNIFORM 45 X

70 X

73 X

150

IMPULSE UNIFORM 45 X

70 X

73 X

150

258 X

IMPULSE NONUNIFORM 45 X

70 X

73 X

150

258 X

c—C F

EXPERIMENTAL

DC UNIFORM 331

DC NONUNIFORM 331

REVIEW

DC UNIFORM 331

DC NONUNIFORM 331

C^F +C.F,+N„+SF^

THEORfiTlCAE

DC UNIFORM 65

REVIEW

DC UNIFORM 65

C^Fg+CO^

THEORETICAL

DC

REVIEW

DC

UNIFORM

UNIFORM

C.F +C0

THEORET

DC

REVIEW

DC

+N2

ICAL

UNIFORM

UNIFORM

65

65

65

65

34
C-.F^+N

THEORETICAL

PARTICLE SURFACE INTERFACE CORONA

DC UNIFORM 65

REVIEW

DC UNIFORM 65

C^Fp+N^+SF^

THEORETICAL

DC

REVIEW

DC

UNIFORM

UNIFORM

65

65

C F N

REVIEW

DC UNIFORM 253

C ^H ^F ^ REVIEW

DC UNIFORM 64

C-.H^I

REVIEW

DC

DC

AC

AC

UNIFORM 285

NONUNIFORM 285

UNIFORM 285

NONUNIFORM 285

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

Review

DC UNIFORM 253

EXPERIMENTAL

DC UNIFORM 104

195

200

201

202

DC NONUNIFORM 104

EVIEW

DC UNIFORM 45

253

258

DC NONUNIFORM 45

258

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

258

IMPULSE NONUNIFORM 45

258

X

X

X

X

X

X

X

X

X

35
PARTICLE SURFACE INTERFACE CORONA

C-C-.H

EXPERIMENTAL

DC UNIFORM 104

DC NONUNIFORM 104

REVIEW

DC UNIFORM 253

C-jH^+Kr

EXPERIMENTAL

DC UNIFORM 200

REVIEW

DC UNIFORM 45

DC NONUNIFORM 45

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

IMPULSE NONUNIFORM 45

C^H^Cl

REVIEW

DC UNIFORM 285

DC NONUNIFORM 285

AC UNIFORM 285

AC NONUNIFORM 285

IMPULSE UNIFORM

IMPULSE NONUNIFORM

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

C H

EXPERIMENTAL

DC UNIFORM 114

115

196

201

202

DC NONUNIFORM 114

115

n-C-.H

REVIEW

DC UNIFORM 258

DC NONUNIFORM 258

IMPULSE UNIFORM 258

IMPULSE NONUNIFORM 258

X

X

X

X

C F

ixi^RIMENTAL

DC UNIFORM 114

310

366

DC NONUNIFORM 114

AC UNIFORM 33

72

457

AC NONUNIFORM 33

36
PARTICLE SURFACE INTERFACE CORONA

^4^10 (cont.) 72

457

460

IMPULSE UNIFORM 33

72

IMPULSE NONUNIFORM 33

72

REVIEW

DC UNIFORM 45

73

150

258

436

437

438

DC NONUNIFORM 45

73

150

258

AC UNIFORM 45

73

150

AC NONUNIFORM 45

73

150

IMPULSE UNIFORM 45

73

150

258

IMPULSE NONUNIFORM 45

73

150

258

^eWew

DC UNIFORM 73

DC NONUNIFORM 73

AC UNIFORM 73

AC NONUNIFORM 73

X

X

X

X

X

X

X

C.F,Q+N2

EXPERIWENTAL

AC UNIFORM 72 X

AC NONUNIFORM 72 X

IMPULSE UNIFORM 72 X

IMPULSE NONUNIFORM 72 X

"-C.F +N

EXPERIMENTAL

AC UNIFORM 47 X

AC NONUNIFORM 47 X

IMPULSE UNIFORM 47 X

IMPULSE NONUNIFORM 47 X

X

X

X

X

37
C.F,^0 (cont.

)

IMPULSE UNIFORM 73

IMPULSE NONUNIFORM 73

PARTICLE SURFACE INTERFACE CORONA

X

X

C F

ix?ERIMENTAL

DC UNIFORM 114

DC NONUNIFORM 114

Ae^iew

DC UNIFORM 438

C F

SxIerimental

DC UNIFORM 114

330

DC NONUNIFORM 114

THEORETICAL

DC . UNIFORM 65

165

167

REVIEW

DC UNIFORM 45

64

65

150

165

253

270

438

DC NONUNIFORM 45

150

270

AC UNIFORM 45

150

AC NONUNIFORM 45

150

IMPULSE UNIFORM 45

150

270

IMPULSE NONUNIFORM 45

150

270

x

x

x

X

1,3-C.F^

EXPERIMENTAL

DC UNIFORM 331

DC NONUNIFORM 331

REVIEW

DC UNIFORM 331

DC NONUNIFORM 331

38
PARTICLE SURFACE INTERFACE CORONA

2-C4F,

EXPERIMENTAL

DC UNIFORM 331

DC NONUNIFORM 331

REVIEW

DC UNIFORM 331

DC NONUNIFORM 331

c-C F

EXPERIMENTAL

DC UNIFORM 331

DC NONUNIFORM 331

REVIEW

DC UNIFORM 270

331

X

DC NONUNIFORM 270

331

X

IMPULSE UNIFORM 270 X

IMPULSE NONUNIFORM 270 X

2-C.F^+CH^F^

EXPERIMENTAL

DC UNIFORM 8 3

2-C.F^+CHF^

EXPERIMENTAL

DC UNIFORM 83

C.F^+CO^

thBoretical

DC UNIFORM 65

REVIEW

DC UNIFORM 65

C>F^+CO^+N

THEORETICAL

DC UNIFORM 65

REVIEW

DC UNIFORM 65

C.F^+N

THEORETICAL

DC UNIFORM 65

REVIEW

DC UNIFORM 65

C.Fg+N +SF^

EXPERIMENTAL

DC UNIFORM 330

THEORETICAL

DC UNIFORM 65

REVIEW

DC UNIFORM 65

X

X

X

X

39
PARTICLE SURFACE INTERFACE CORONA

THEORETICAL

DC

REVIEW

DC

C.F-N

UNIFORM

UNIFORM

EXPERIMENTAL

DC UNIFORM

DC NONUNIFORM

REVIEW

DC UNIFORM

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

C F

ixIfiRIMENTAL

65

167

65

114

114

45

150

435

436

437

438

45

150

45

150

45

150

45

150

45

150

DC UNIFORM 330

AC UNIFORM 72

392

AC NONUNIFORM 72

IMPULSE UNIFORM 72

IMPULSE NONUNIFORM 72

REVIEW

DC UNIFORM 45

150

270

436

437

438

DC NONUNIFORM 45

150

270

AC UNIFORM 45

150

AC NONUNIFORM 45

150

IMPULSE UNIFORM 45

150

X

X

X

X

X

X

X

X

X

X

X

40
PARTICLE SURFACE INTERFACE CORONA

C.Fp (cont.) 270 X X

IRPULSE NONUNIFORM 45 X

150

270 X X

2-C F

exIeSimental

DC UNIFORM 331

DC NONUNIFORM 331

REVIEW

DC UNIFORM 331

DC NONUNIFORM 331

C-C F

EXPERIMENTAL

DC UNIFORM 83

114

311

330

331

DC NONUNIFORM 114

331

AC UNIFORM 47

AC NONUNIFORM 47

IMPULSE UNIFORM 47

139

IMPULSE NONUNIFORM 47

THEORETICAL

DC UNIFORM 65

165

167

REVIEW

DC UNIFORM 64

65

150

165

253

258

270

331

DC NONUNIFORM 150

258

270

331

AC UNIFORM 150

AC NONUNIFORM 150

IMPULSE UNIFORM 150

258

270

IMPULSE NONUNIFORM 150

258

270

X

X

X

X

41
PARTICLE SURFACE INTERFACE CORONA

iso-C.F^

EXPERIMENTAL

DC UNIFORM 311

REVIEW

DC UNIFORM 150

DC NONUNIFORM 150

AC UNIFORM 150

AC NONUNIFORM 150

IMPULSE UNIFORM 150

IMPULSE NONUNIFORM 150

C-C.F +1,1,1-C^H F

EXPERIMENTAL

DC UNIFORM 83

85

DC NONUNIFORM 85

THEORETICAL

DC UNIFORM 317

C-C^Fj^ + l-C^F.

EXPERIMENTAL

DC UNIFORM 83

C-C.Fo+C^H^N

EXPERIMENTAL

DC UNIFORM 83

C-C.Fj.+C.F,+N2+SF

EXPERIMENTAL

DC UNIFORM 330

C-C F +CF

EXPERIMENTAL

DC UNIFORM 83

THEORETICAL

DC UNIFORM 317

2-C.F +CHF

EXPERIMENTAL

DC UNIFORM 85

DC NONUNIFORM 85

C-C.F +CHF^

EXPERIMENTAL

DC UNIFORM 83

85

DC NONUNIFORM 8 5

THEORETICAL

DC UNIFORM 317

C-C.Fo+CO

EXPERIMENTAL

AC NONUNIFORM 363

IMPULSE NONUNIFORM 363

42
PARTICLE SURFACE INTERFACE CORONA

C-C.Fo+CO+SF^

EXPERIMENTAL

AC NONUNIFORM 363

IMPULSE NONUNIFORM 363

C-C.Fq+CO^

THEORETICAL

DC UNIFORM 65

REVIEW

DC UNIFORM 65

C-C.F^+COj+N^

THEORETICAL

DC UNIFORM 65

EVIEW

DC UNIFORM 65

2-c F +N

exIeSim^ntal

dc uniform 85

dc nonuniform 85

theoretical

dc uniform 317

C-C.Fj.+N^

EXPERIMENTAL

DC UNIFORM 85

DC NONUNIFORM 8 5

AC UNIFORM 47 X

AC NONUNIFORM 47 X

IMPULSE UNIFORM 47 X

IMPULSE NONUNIFORM 47 X

THEORETICAL

DC UNIFORM 65

317

REVIEW

DC UNIFORM 65

C-C.Fo+N^+SF^

EXPERIMENTAL

AC NONUNIFORM 363

IMPULSE NONUNIFORM 363

C.F

Se^iew^

DC UNIFORM 150

DC NONUNIFORM 150

AC UNIFORM 150

AC NONUNIFORM 150

IMPULSE UNIFORM 150

IMPULSE NONUNIFORM 150

43
PARTICLE SURFACE INTERFACE CORONA

^-C.F +SF

THEORETICAL

DC UNIFORM 167

C-C F O

REVIEW

dc uniform 73 x

dc nonuniform 73 x ac uniform 73 x

ac nonuniform 73 x impulse uniform 73 x

impulse nonuniform 73 x

^xJ>8rimental

dc uniform 115

dc nonuniform 115

ExIsfefMENTAL

dc uniform 115

dc nonuniform 115

expeJiASntal

DC UNIFORM 201

202

EX^EiiMENTAL

DC UNIFORM 201

202

REVIEW

DC UNIFORM 258

DC NONUNIFORM 258

IMPULSE UNIFORM 258

IMPULSE NONUNIFORM 258

ixt^RIMENTAL

dc uniform 372

Experimental

dc uniform 195

x

x

x

X

C-H,

REVIEW

DC UNIFORM 258 X

DC NONUNIFORM 258 X

IMPULSE UNIFORM 258 X

IMPULSE NONUNIFORM 258 X

44
1,3-C H

EXPERIMENTAL

DC UNIFORM

DC

104

195

201

202

NONUNIFORM 104

PARTICLE SURFACE INTERFACE CORONA

ix?ERIMENTAL

DC UNIFORM 104

199

DC NONUNIFORM 104

REVIEW

DC UNIFORM 258

DC NONUNIFORM 258

IMPULSE UNIFORM 258

IMPULSE NONUNIFORM 258

X

X

X

X

EXPERIMENTAL

DC

DC

UNIFORM

NONUNIFORM

104

195

201

202

104

ex^eIimental

dc uniform

dc nonuniform

104

104

cis-C -Ho

EXPERIMENTAL

DC UNIFORM 195

iso-C ,Ho

EXPERIMENTAL

DC UNIFORM 195

trans-C .H„

EXPERIMENTAL

DC UNIFORM 195

C.H CI

REVIEW

DC UNIFORM 285

DC NONUNIFORM 285

AC UNIFORM 28 5

AC NONUNIFORM 285

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

45
PARTICLE SURFACE INTERFACE CORONA

5e^9ew

DC UNIFORM 45

438

DC NONUNIFORM 45

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

IMPULSE NONUNIFORM 45

EXPERIMENTAL

DC UNIFORM 114

315

DC NONUNIFORM 114

AC UNIFORM 33

457

AC NONUNIFORM 33

457

460

IMPULSE UNIFORM 33

IMPULSE NONUNIFORM 33

REVIEW

DC UNIFORM 45

73

150

258

438

DC NONUNIFORM 45

73

150

258

AC UNIFORM 45

73

150

AC NONUNIFORM 45

73

150

IMPULSE UNIFORM 45

73

150

258

IMPULSE NONUNIFORM 45

73

150

258

C.Fq

REVIEW

DC UNIFORM 45

270

435

436

437

X

X

X

X

X

X

X

X

X

X

X

X

46
C F (cont .

)

NONUNIFORM

AC

AC

IMPULSE

UNIFORM

NONUNIFORM

UNIFORM

IMPULSE NONUNIFORM

438

45

270

45

45

45

270

45

270

PARTICLE SURFACE INTERFACE CORONA

X

X

X

X

X

C-C F

EXPERIMENTAL

DC UNIFORM 331

DC NONUNIFORM 331

REVIEW

DC UNIFORM 331

DC NONUNIFORM 331

C-CcFp+CHF^

EXPERIMENTAL

DC

DC

UNIFORM 85

NONUNIFORM 85

Q-C F +N

exIeSim^ntal

dc uniform

dc nonuniform

85

85

exIe^Jmental

dc uniform

dc nonuniform

104

104

exIeJIPmental

dc uniform 195

exIeJSmental

DC UNIFORM 115

202

DC NONUNIFORM 115

review

DC UNIFORM 285

DC NONUNIFORM 285

AC UNIFORM 285

AC NONUNIFORM 285

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

47
PARTICLE SURFACE INTERFACE CORONA

EXPERIMENTAL

DC UNIFORM 114

115

202

DC NONUNIFORM 114

115

exIeJJmental

dc uniform 115

dc nonuniform 115

2 f 2""C J. H , ^ experimental

dc uniform 115

dc nonuniform 115

exIeJi?mental

dc uniform 198

202

301

C.H^

EXPERIMENTAL

DC UNIFORM 195

C-C H

EXPERIMENTAL

DC UNIFORM 195

Se^Sew

DC UNIFORM 270 X X

DC NONUNIFORM 270 X X

IMPULSE UNIFORM 270 X X

IMPULSE NONUNIFORM 270 X X

C-C F

exIe^Smental

DC UNIFORM 331

DC NONUNIFORM 331

REVIEW

DC UNIFORM 331

DC NONUNIFORM 331

c-CgF +CHF

EXPERIMENTAL

DC UNIFORM 85

DC NONUNIFORM 85

48
PARTICLE SURFACE INTERFACE CORONA

C-C^F,^+N^

EXPERIMENTAL

DC UNIFORM 85

DC NONUNIFORM 85

6e^?ew

DC UNIFORM 150

270 X X

DC NONUNIFORM 150

270 X X

AC UNIFORM 150

AC NONUNIFORM 150

IMPULSE UNIFORM 150

270 X X

IMPULSE NONUNIFORM 150

270 X X

c-C F

exIe^Imental

DC UNIFORM 331

DC NONUNIFORM 331

REVIEW

DC UNIFORM 64

331

DC NONUNIFORM 331

C^F. . EXPERIMENTAL

DC UNIFORM 114

315

DC NONUNIFORM 114

REVIEW

DC UNIFORM 45

150

258

438

DC NONUNIFORM 45

150

258

AC UNIFORM 45

150

AC NONUNIFORM 45

150

IMPULSE UNIFORM 45

150

258

IMPULSE NONUNIFORM 45

150

- 258

X

X

X

X

X

X

X

X

X

C F N

ixJ§RIMENTAL

AC UNIFORM 33

49
PARTICLE SURFACE INTERFACE CORONA

C^F,^N (C(Dnt. ) 70

NONUNIFORM 33

70

IMPULSE UNIFORM 33

70

IMPULSE NONUNIFORM 33

70

REVIEW

DC UNIFORM 45

438

DC NONUNIFORM 45

AC UNIFORM 45

70

AC NONUNIFORM 45

70

IMPULSE UNIFORM 45

70

IMPULSE NONUNIFORM 45

70

1-C.H

EXPERIMENTAL

DC UNIFORM 104

202

DC NONUNIFORM 104

C-CgH

EXPERIMENTAL

DC UNIFORM 115

202

DC NONUNIFORM 115

IxJiRIMENTAL

DC UNIFORM 114

115

DC NONUNIFORM 114

115

EXPE^lAiNTAL

DC UNIFORM 115

DC NONUNIFORM 115

n-C^H, . EXPERIMENTAL

DC UNIFORM 202

301

IMPULSE UNIFORM 398

C^H CI

REVIEW

DC UNIFORM 45

438

X

X

X

X

X

X

X

X

X

50
C^H^Cl (cont.)

DC NONUNIFORM 45

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

IMPULSE NONUNIFORM 45

PARTICLE SURFACE INTERFACE CORONA

X

X

X

X

X

EXPERIMENTAL

DC UNIFORM 104

199

DC NONUNIFORM 104

REVIEW

DC UNIFORM 280

C^Cl^F^

REVIEW

DC UNIFORM 45

438

DC NONUNIFORM 45

AC UNIFORM -4-5 AC NONUNIFORM 45

IMPULSE UNIFORM 45

IMPULSE NONUNIFORM 45

X

X

X

X

X

?EV?E§

DC UNIFORM

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

45

438

45

45

45

45

45

X

X

X

X

X

C-C^Cl^Fc

EXPERIMENTAL

AC NONUNIFORM 460

C^CIFREVIEW

DC UNIFORM

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

45

438

45

45

45

45

45

X

X

X

X

X

C-C^C1F_

EXPERIMENTAL

AC NONUNIFORM 460

51
C F

2e^?ew

DC UNIFORM 438

PARTICLE SURFACE INTERFACE CORONA

C F

2xJ>iRIMENTAL

DC UNIFORM 315

AC UNIFORM 70

AC NONUNIFORM 70

IMPULSE UNIFORM 70

IMPULSE NONUNIFORM 70

REVIEW

DC UNIFORM 45

150

270

438

DC NONUNIFORM 45

150

270

AC UNIFORM 45

70

150

AC NONUNIFORM 45

70

150

IMPULSE UNIFORM 45

70

150

270

IMPULSE NONUNIFORM 45

70

150

270

EX?ERfMENTAL

AC UNIFORM 33

AC NONUNIFORM 33

460

IMPULSE UNIFORM 33

IMPULSE NONUNIFORM 33

X

X

X

X

X

X

X

X

X

X

X

X

EX?EifME^TAL

AC UNIFORM 33

AC NONUNIFORM 33

IMPULSE UNIFORM 33

IMPULSE NONUNIFORM 33

C-C_F, 4+SFg

EXPERIMENTAL

AC UNIFORM 33

AC NONUNIFORM 33

IMPULSE UNIFORM 33

52
C-C-F, A+SFf.

IMPOLSE NONUNIFORM 33

PARTICLE SURFACE INTERFACE CORONA

C F

2xJ>6rimental

AC UNIFORM 33

70

AC NONUNIFORM 33

70

IMPULSE UNIFORM 33

70

IMPULSE NONUNIFORM 33

70

REVIEW

DC UNIFORM 45

150

438

DC NONUNIFORM 45

150

AC UNIFORM 45

70

150

AC NONUNIFORM 45

70

150

IMPULSE UNIFORM 45

70

150

IMPULSE NONUNIFORM 45

70

150

X

X

X

X

X

X

X

X

X

X

X

X

X

C F

2xIerimental

DC UNIFORM 331

DC NONUNIFORM 331

AC UNIFORM 70

AC NONUNIFORM 70

IMPULSE UNIFORM 70

IMPULSE NONUNIFORM 70

REVIEW

DC UNIFORM 45

150

270

331

438

DC NONUNIFORM 45

150

270

331

AC UNIFORM 45

70

150

AC NONUNIFORM 45

X

X

X

X

X

X

X

X

53
PARTICLE SURFACE INTERFACE CORONA

C^Fg (cont.) 70

150

IMPULSE UNIFORM 45 X

70 X

150

270 X X

IMPULSE NONUNIFORM 45 X

70 X

150

C-C F

EXPERIMENTAL

270

AC UNIFORM 33

AC NONUNIFORM 33

460

IMPULSE UNIFORM 33

IMPULSE NONUNIFORM 33

n-C^H

EXPERIMENTAL

DC UNIFORM 301

C H CIF

REVIEW

DC UNIFORM 45

DC NONUNIFORM 45

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

IMPULSE NONUNIFORM 45

C H CIF

REVIEW

DC UNIFORM 45

438

DC NONUNIFORM 45

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

IMPULSE NONUNIFORM 45

C-C^H.CIF^

EXPERIMENTAL

AC NONUNIFORM 460

C F

ixJ^RIMENTAL

DC UNIFORM 315

331

DC NONUNIFORM 331

AC UNIFORM 70

AC NONUNIFORM 70

IMPULSE UNIFORM 70

X

X

X

X

X

X

X

X

X

X

X

X

X

X

54
PARTICLE SURFACE INTERFACE CORONA

' F,, (cont.)

IWPULSE NONUNIFORM

REVIEW

DC UNIFORM

DC

AC

AC

NONUNIFORM

UNIFORM

NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

70

45

150

270

331

438

45

150

270

331

45

70

150

45

70

150

45

70

150

270

45

70

150

270

X

X

X

X

X

X

X

X

X

C-C F

EXpE^fMENTAL

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

33

33

460

33

33

C F O

ixJ^RIMENTAL

DC

DC

REVIEW

DC

DC

AC

AC

UNIFORM

NONUNIFORM

UNIFORM

NONUNIFORM

UNIFORM

NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

397

397

150

150

150

150

150

150

c-C„F,gO

REVIEW

DC UNIFORM 32

Cj.F,^0+SF,

EXPERIMENTAL

DC UNIFORM 397

55
S^jeO^SFg (cont.

)

NONUNIFORM

PARTICLE SURFACE INTERFACE CORONA

397

EXPERIMENTAL

AC UNIFORM 33

70

AC NONUNIFORM 33

70

IMPULSE UNIFORM 33

70

IMPULSE NONUNIFORM 33

70

REVIEW

DC UNIFORM 45

438

DC NONUNIFORM 45

AC UNIFORM 45

70

AC NONUNIFORM 45

70

IMPULSE UNIFORM 45

70

IMPULSE NONUNIFORM 45

70

n-CoH,

g

EXPERIMENTAL

DC UNIFORM 199

202

301

X

X

X

X

X

X

X

X

X

X

X

C-CoH-.ClF^

EXPERIMENTAL

AC NONUNIFORM 460

CBrClF^

EXPERIMENTAL

DC UNIFORM 114

156

DC NONUNIFORM 114

THEORETICAL

DC UNIFORM 65

156

165

167

REVIEW

DC UNIFORM 64

65

150

165

258

438

DC NONUNIFORM 150

56
CBrClF (cont.)

AC UNIFORM

258

150

AC NONUNIFORM 150

IMPULSE UNIFORM 150

258

IMPULSE NONUNIFORM 150

258

CBrClF2+N2

EXPERIMENTAL

DC UNIFORM 156

THEORETICAL

DC UNIFORM 65

156

REVIEW

DC UNIFORM 65

PARTICLE SURFACE INTERFACE CORONA

X

X

CBrClF2+SFg

EXPERIMENTAL

DC UNIFORM

THEORETICAL

156

DC UNIFORM 65

156

167

EVIEW

DC UNIFORM 65

CBrF^

EXPERIMENTAL

DC UNIFORM 114

DC NONUNIFORM 114

283

AC UNIFORM 72

AC NONUNIFORM 72

IMPULSE UNIFORM 72

IMPULSE NONUNIFORM 72

REVIEW

DC UNIFORM 64

73

150

253

258

437

438

DC NONUNIFORM 73

150

258

AC UNIFORM 73

150

AC NONUNIFORM 73

150

IMPULSE UNIFORM 73

150

258

X

X

X

X

X

X

X

57
\ CBrF^ (cont.

)

IMPULSE NONUNIFORM

EXPERIMENTAL

PARTICLE SURFACE INTERFACE CORONA

73

150

258

DC UNIFORM 76

88

114

151

203

206

303

313

373

DC NONUNIFORM 114

141

142

206

283

313

AC UNIFORM 206

313

AC NONUNIFORM 206

313

460

IMPULSE UNIFORM 139

206

313

IMPULSE NONUNIFORM 206

313

THEORETICAL

DC UNIFORM 152

165

167

207

373

419

DC NONUNIFORM 207

REVIEW

DC UNIFORM 45

64

73

88

96

150

165

203

253

258

280

285

368

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

58
PARTICLE SURFACE INTERFACE CORONA

CCI2F2 (cont.

)

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

435

436

437

438

45

73

96

150

258

285

45

73

96

150

285

45

73

96

150

285

45

73

96

150

258

285

45

73

96

150

258

285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

CCljF^+CF

EXPERIMENTAL

DC UNIFORM 206

DC NONUNIFORM 206

AC UNIFORM 206

AC NONUNIFORM 206

IMPULSE UNIFORM 206

IMPULSE NONUNIFORM 206

X

X

X

X

X

X

X

X

X

X

X

X

CClpFj+CO^

THEORETICAL

DC UNIFORM 317

CCl^F^+N

EXPERIMENTAL

DC UNIFORM 88

206

276

373

402

403

59
PARTICLE SURFACE INTERFACE CORONA

Cl^P.^N, (cont. ) NONUNIFORM 142

206

AC UNIFORM 206

AC NONUNIFORM 206

IMPULSE UNIFORM 206

IMPULSE NONUNIFORM 206

THEORETICAL

DC UNIFORM 317

373

419

REVIEW

DC UNIFORM 88

X

X

X

X

X

X

X

X

X

X

X

CCljF^+SFg

EXPERIMENTAL

DC UNIFORM 206

DC NONUNIFORM 206

AC UNIFORM 206

AC NONUNIFORM 206

IMPULSE UNIFORM 206

IMPULSE NONUNIFORM 206

THEORETICAL

DC UNIFORM 167

X

X

X

X

X

X

X

X

X

X

X

X

CCl^F

EXPERIMENTAL

DC UNIFORM 88

114

203

206

DC NONUNIFORM 114

206

283

AC UNIFORM 206

AC NONUNIFORM 206

460

IMPULSE UNIFORM 206

IMPULSE NONUNIFORM 206

REVIEW

DC UNIFORM 45

64

73

88

150

203

258

285

437

438

DC NONUNIFORM 45

73

150

258

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

60
PARTICLE SURFACE INTERFACE CORONA

CCl^F (cont.) 285

Ad UNIFORM 45

73

150

285

AC NONUNIFORM 45

73

150

285

IMPULSE UNIFORM 45

73

150

258

285

IMPULSE NONUNIFORM 45

73

150

258

285

CCl.

EXPERIMENTAL

DC UNIFORM 88

114

203

DC NONUNIFORM 114

AC NONUNIFORM 460

THEORETICAL

DC UNIFORM 152

REVIEW

DC UNIFORM 45

64

88

203

285

436

437

438

DC NONUNIFORM 45

285

AC UNIFORM 45

285

AC NONUNIFORM 45

285

IMPULSE UNIFORM 45

285

IMPULSE NONUNIFORM 45

285

CCIF^

EXPERIMENTAL

DC UNIFORM

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

88

114

203

61
PARTICLE SURFACE INTERFACE CORONA

CCIF^ (cont.)

DC NONUNIFORM

206 X X

38 X X

114

206 X X

283

AC UNIFORM 206 X X

AC NONUNIFORM 206

460

X X

IMPULSE UNIFORM 206 X X

IMPULSE NONUNIFORM 206 X X

REVIEW

DC UNIFORM 45

64

73

88

150

203

253

258

436

437

438

X

X

X

X

DC NONUNIFORM 45

73

150

258

X

X

X

AC UNIFORM 45

73

150

X

X

AC NONUNIFORM 45

73

150

X

X

IMPULSE UNIFORM 45

73

150

258

X

X

X

IMPULSE NONUNIFORM 45

73

150

258

X

X

X

CCIF^+N

EXPERIMENTAL

DC UNIFORM 88 X

REVIEW

DC UNIFORM 88 X

CD

EXPERIMENTAL

DC UNIFORM 84

DC NONUNIFORM 84

62
PARTICLE SURFACE INTERFACE CORONA

CF-I

EXPERIMENTAL

DC NONUNIFORM 283

REVIEW

DC UNIFORM 45

438

DC NONUNIFORM 45

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

IMPULSE NONUNIFORM 45

CF-jNO

EXPERIMENTAL

DC UNIFORM 114

DC NONUNIFORM 114

REVIEW

DC UNIFORM 438

CF^NO^

REVIEW

DC UNIFORM 150

253

DC NONUNIFORM 150

AC UNIFORM 150

AC NONUNIFORM 150

IMPULSE UNIFORM 150

IMPULSE NONUNIFORM 150

X

X

X

X

X

CF

EXPERIMENTAL

DC UNIFORM

DC

AC

NONUNIFORM

UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

55

63

114

203

206

252

310

401

114

206

283

33

70

72

206

392

33

70

72

206

460

33

70

X

X

X

X

X

X

X

X

63
CF. (cont.

)

IMPULSE NONUNIFORM

THEORETICAL

DC UNIFORM

DC NONUNIFORM

REVIEW

DC UNIFORM

DC

AC

AC

NONUNIFORM

UNIFORM

NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

72

206

33

70

72

206

55

207

207

45

64

73

203

253

258

436

437

438

45

73

258

45

70

73

45

70

73

45

70

73

258

45

70

73

258

PARTICLE SURFACE INTERFACE CORONA

X

X X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

CF.+SF^

EXPERIMENTAL

DC UNIFORM 83

THEORETICAL

DC UNIFORM 317

CF.SO^

REVIEW

DC UNIFORM 253

CFcNS

EXPERIMENTAL

DC UNIFORM 114

DC NONUNIFORM 114

REVIEW

DC UNIFORM 4 38

64
PARTICLE SURFACE INTERFACE CORONA

CFy.S

EXPERIMENTAL

DC UNIFORM 1^4

151

263

DC NONUNIFORM lU

THEORETICAL

DC UNIFORM 1,152

REVIEW

DC UNIFORM 150

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

CF^SO

REVIEW

DC UNIFORM

203

253

2g0 X X

2B5

438

XXX

150

285

150

285

1^0

285

150

285

150

XXX

285 XXX

253

CH^Cl^ ; EXPERIMENTAL > DC UNIFORM 114

DC NONUNIFORM 114

AC NONUNIFORM 460

REVIEW

DC UNIFORM 45 X

64

258 X

438

285 XXX

DC NONUNIFORM 45 X

258 X

AC UNIFORM

285

45

XXX

X

AC NONUNIFORM

lis

45

XXX

X

IMPULSE UNIFORM

285

45

XXX, X

258 X

IMPULSE NONUNIFORM

285

45

XXX

X

258 X

285 X X X

65
PARTICLE SURFACE INTERFACE CORONA

CH^CIF

EXPERIMENTAL

DC UNIFORM 88

114

DC NONUNIFORM 114

AC NONUNIFORM 460

REVIEW

DC UNIFORM 45

88

258

437

438

DC NONUNIFORM 45

258

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

258

IMPULSE NONUNIFORM 45

258

X

X

X

X

X

X

X

X

X

X

CH^F«

REVIEW

DC UNIFORM 45

64

258

438

DC NONUNIFORM 45

258

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

258

IMPULSE NONUNIFORM 45

258

CH^F^+SFg

EXPERIMEl^TAL

DC UNIFORM 83

CH-Br

EXPERIMENTAL

DC UNIFORM 114

DC NONUNIFORM 114

REVIEW

DC UNIFORM 64

258

285

438

DC NONUNIFORM 258

285

AC UNIFORM 285

AC NONUNIFORM 285

IMPULSE UNIFORM 258

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

66
CH Br (cont.

285

IMPULSE NONUNIFORM 258

285

CH^Cl

EXPERIMENTAL

DC UNIFORM 88

114

DG NONUNIFORM 114

AC NONUNIFORM 460

REVIEW

DC UNIFORM 45

64

88

258

285

438

DC NONUNIFORM 45

258

285

AC UNIFORM 45

285

AC NONUNIFORM 45

285

IMPULSE UNIFORM 45

258

285

IMPULSE NONUNIFORM 45

258

285

PARTICLE SURFACE XXXINTERFACE CORONA XXXX

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

CH^F

REVIEW

DC UNIFORM 45

DC NONUNIFORM 45

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

IMPULSE NONUNIFORM 45

CH^I

EXPERIMENTAL

DC UNIFORM 114

DC NONUNIFORM 114

REVIEW

DC UNIFORM 64

258

285

437

438

DC NONUNIFORM 258

285

AC UNIFORM 285

AC NONUNIFORM 285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

67
PARTICLE SURFACE INTERFACE CORONA

CH^I (cont.)

IMPULSE UNIFORM 258

285

IMPULSE NONUNIFORM 258

285

CH.

EXPERIMENTAL

DC UNIFORM 84

88

114

115

196

201

202

DC NONUNIFORM 84

114

115

169

AC NONUNIFORM 460

REVIEW

DC UNIFORM 45

64

88

253

285

437

438

DC NONUNIFORM 45

285

AC UNIFORM 45

285

AC NONUNIFORM 45

285

IMPULSE UNIFORM 45

285

IMPULSE NONUNIFORM 45

285

n-CH

REVIEW

DC UNIFORM 258

DC NONUNIFORM 258

IMPULSE UNIFORM 258

IMPULSE NONUNIFORM 258

CH N

REVIEW

DC UNIFORM 437

438

CHCI2F

EXPERIMENTAL

DC UNIFORM 88

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

68
PARTICLE SURFACE INTERFACE CORONA

CHCI2F (c<Dnt. ) 114

203

206

DC NONUNIFORM 114

206

AC UNIFORM 206

AC NONUNIFORM 206

460

IMPULSE UNIFORM 206

IMPULSE NONUNIFORM 206

REVIEW

DC UNIFORM 45

64

88

150

203

258

437

438

DC NONUNIFORM 45

150

258

AC UNIFORM 45

150

AC NONUNIFORM 45

150

IMPULSE UNIFORM 45

150

258

IMPULSE NONUNIFORM 45

150

258

CHCl^

EXPERIMENTAL

DC UNIFORM 88

114

DC NONUNIFORM 114

AC NONUNIFORM 460

REVIEW

DC UNIFORM 45

64

88

150

258

285

437

- 438

DC NONUNIFORM 45

150

258

285

AC UNIFORM 45

150

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

69
CHC1-, (cont.) 285

AC-^ NONUNIFORM 45

150

285

IMPULSE UNIFORM 45

150

258

285

IMPULSE NONUNIFORM 45

150

258

285

CHClFp

EXPERIMEIVITAL

DC UNIFORM 88

114

206

DC NONUNIFORM 114

206

AC UNIFORM 206

AC NONUNIFORM 206

460

IMPULSE UNIFORM 206

IMPULSE NONUNIFORM 206

REVIEW

DC UNIFORM 45

64

73

88

150

253

258

437

438

DC NONUNIFORM 45

73

150

258

AC UNIFORM 45

73

150

AC NONUNIFORM 45

73

150

IMPULSE UNIFORM 45

73

150

258

IMPULSE NONUNIFORM 45

73

150

258

PARTICLE SURFACE XXXINTERFACE CORONA

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

70
CHF,

EXPERIMENTAL

DC

DC

AC

AC

IMPULSE

IMPULSE

REVIEW

DC

UNIFORM

NONUNIFORM

UNIFORM

NONUNIFORM

UNIFORM

NONUNIFORM

UNIFORM

DC

AC

AC

NONUNIFORM

UNIFORM

NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

CHF^+SF^

EXPERIMENTAL

DC UNIFORM

DC NONUNIFORM

THEORETICAL

DC UNIFORM

CO

EXPERIMENTAL

DC UNIFORM

DC NONUNIFORM

AC NONUNIFORM

IMPULSE NONUNIFORM

THEORETICAL

DC UNIFORM

PARTICLE SURFACE INTERFACE CORONA

88

114

206

114

206

206

206

206

206

45

64

73

88

150

258

438

45

73

150

258

I 45

I 73

150

45

73

^50

I 45

I 73

150

258

45

73

150

258

83

85

85

317

112

169

363

363

342

X

X X

X X

X X

X X

X X

X

X

X

X

X

X

X

X

71
CO (cont.

)

REVIEW

DC UNIFORM

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

CO+SF^

EXPERIMENTAL

AC NONUNIFORM

IMPULSE NONUNIFORM

CO^

EXPERIMENTAL

DC UNIFORM

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE NONUNIFORM

THEORETICAL

DC UNIFORM

343

45

64

285

437

438

45

285

45

285

45

285

45

285

45

285

363

363

40

88

89

111

273

326

353

373

389

390

107

169

326

462

326

351

326

351

25

382

65

78

273

342

343

373

374

PARTICLE SURFACE INTERFACE CORONA

I X XXX

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

72
PARTICLE SURFACE INTERFACE CORONA

CO^ (cont.)

REVIEW

DC UNIFORM 45

64

65

X

66 X X

88 X

92 X X X

96 X X X

119 X

150

244 X X

253

270 X X

285 X X X

334 X X

368

437

438

DC NONUNIFORM 45 X

66 X X

96 X X X

150

244 X X

270 X X

285 X X X

334 X X

AC UNIFORM 45 X

66 X X

96 X X X

150

285 X X X

AC NONUNIFORM 45 X

66 X X

96 X X X

150

285 X X X

IMPULSE UNIFORM 45 X

92 X X X

96 X X X

150

244 X X

270 X X

285 X X X

IMPULSE NONUNIFORM 45 X

96 X X X

150

244 X X

270 X X

285 X X X

CO,+He+N,

EXPERIMENTAL

DC UNIFORM 111

73
PARTICLE SURFACE INTERFACE CORONA

CO^+N^

EXPERIMEl^TAL

DC UNIFORM 88

REVIEW

DC UNIFORM 88

96

285

DC NONUNIFORM 96

285

AC UNIFORM 96

285

AC NONUNIFORM 96

285

IMPULSE UNIFORM 96

285

IMPULSE NONUNIFORM 96

285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

CO^+N^+SFg

THEORETICAL

DC

REVIEW

DC

UNIFORM

UNIFORM

65

65

CO^+Ne

EXPERIMENTAL

DC NONUNIFORM 107

CO,+SFg

EXPERIMENTAL

DC UNIFORM 254

273

DC NONUNIFORM 254

274

AC UNIFORM 351

AC NONUNIFORM 351

IMPULSE NONUNIFORM 382

THEORETICAL

DC UNIFORM 273

316

317

DC NONUNIFORM 316

REVIEW

DC UNIFORM 270 X X

DC NONUNIFORM 270 X X

IMPULSE UNIFORM 270 X X

IMPULSE NONUNIFORM 270 X X

cs

REVIEW

DC UNIFORM 285 X

DC NONUNIFORM 285 X

AC UNIFORM 285 X

AC NONUNIFORM 285 X

X

X

X

X

X

X

X

X

X

X

X

74
PARTICLE SURFACE INTERFACE CORONA

CSp (cont.)

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

X

X

X

X

X

X

CSO

REVIEW

DC UNIFORM 64

253

^^2

EXPERIMENTAL

DC UNIFORM

DC NONUNIFORM

THEORETICAL

DC UNIFORM

REVIEW

DC UNIFORM

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

62

373

283

373

285

437

438

285

285

285

285

285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

CI S

REVIEW

DC UNIFORM 437

438

CIF^S

REVIEW

DC UNIFORM 253

CIFO^

EXPERIMENTAL

DC UNIFORM

REVIEW

DC UNIFORM

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

203

45

203

437

438

45

45

45

45

45

X

X

X

X

X

Cs+He

EXPERIMENTAL

DC UNIFORM 127

75
PARTICLE SURFACE INTERFACE CORONA

EXPERIMENTAL

DC UNIFORM 84

DC NONUNIFORM 84

282

F^SO

REVIEW

DC UNIFORM 150

253

285

437

438

DC NONUNIFORM 150

285

AC UNIFORM 150

285

AC NONUNIFORM 150

285

IMPULSE UNIFORM 150

285

IMPULSE NONUNIFORM 150

285

F SO

REVIEW

DC

F^NS

REVIEW

DC

UNIFORM

UNIFORM

H. EXPERIMENTAL

DC UNIFORM

DC NONUNIFORM

AC NONUNIFORM

253

253

4

56

84

108

109

148

151

262

266

308

389

390

56

84

169

266

282

283

87

99

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

76
PARTICLE SURFACE INTERFACE CORONA

H^ (cont. ) '^IMPULSE UNIFORM 148

IMPULSE NONUNIFORM 135

136

THEORETICAL

DC UNIFORM 163

190

343

374

DC NONUNIFORM 163

REVIEW

DC UNIFORM 45

64

66

96

119

148

163

244

253

260

261

264

280

285

334

435

436

437

438

DC NONUNIFORM 45

66

96

163

244

260

264

285

334

AC UNIFORM 45

66

96

285

AC NONUNIFORM 45

66

96

285

IMPULSE UNIFORM 45

96

- 148

244

285

IMPULSE NONUNIFORM 45

96

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

77
H^ (cont .

)

PARTICLE SURFACE INTERFACE CORONA

244 X X

285 XXX

H^+He

EXPERIMENTAL

DC UNIFORM 77

H^+Ne

EXPERIMENTAL

DC UNIFORM 77

H +0

REVIEW

DC

DC

UNIFORM 264

NONUNIFORM 264

X

X

H^+SF^

EXPERIMENTAL

AC NONUNIFORM

IMPULSE NONUNIFORM

99

135

136

X

X

H^O

EXPERIMENTAL

DC UNIFORM 171

172

361

DC NONUNIFORM 162

H^S

REVIEW

DC UNIFORM 244

285

DC NONUNIFORM 244

285

AC UNIFORM 285

AC NONUNIFORM 285

IMPULSE UNIFORM 244

285

IMPULSE NONUNIFORM 244

285

X X

X X X

X X

X X X

X X X

X X X

X X

X X X

X X

X X X

HBr

REVIEW

DC

DC

AC

AC

UNIFORM 285

NONUNIFORM 285

UNIFORM 285

NONUNIFORM 285

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

HCl

REVIEW

DC UNIFORM 285

78
PARTICLE SURFACE INTERFACE CORONA

HCl (cont,.)

DC NONUNIFORM 285

AC UNIFORM 285

AC NONUNIFORM 285

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

HI

REVIEW

DC UNIFORM 285

DC NONUNIFORM 285

AC UNIFORM 285

AC NONUNIFORM 285

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

He

EXPERIMENTAL

DC UNIFORM

DC

AC

AC

NONUNIFORM

UNIFORM

NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

THEORETICAL

DC UNIFORM

DC NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

REVIEW

DC UNIFORM

4

80

125

154

164

242

284

326

389

390

400

451

164

170

326

326

351

87

134

326

351

423

51

139

456

52

163

163

51

52

45

66

92

119

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

79
He (cont.

)

163

244

253

260

264

280

285

436

437

438

DC NONUNIFORM 45

66

163

244

260

264

285

AC UNIFORM 45

66

285

AC NONUNIFORM 45

66

285

IMPULSE UNIFORM 45

92

244

285

IMPULSE NONUNIFORM 45

244

285

He+K

EXPERIMENTAL

DC UNIFORM 127

He+N^

EXPERIMENTAL

AC UNIFORM 351

AC NONUNIFORM 351

PARTICLE SURFACE INTERFACE CORONA

X X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

He+Ne

EXPERIMENTAL

DC UNIFORM 125

451

He+O^

REVIEW

DC

DC

AC

AC

UNIFORM 285

NONUNIFORM 285

UNIFORM 285

NONUNIFORM 285

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

80
PARTICLE SURFACE INTERFACE CORONA

He+SF,

EXPERIMEI^TAL

DC UNIFORM 400

AC NONUNIFORM 87

THEORETICAL

DC UNIFORM 78

236

REVIEW

DC UNIFORM 45

DC NONUNIFORM 45

AC UNIFORM 45

AC NONUNIFORM 45

IMPULSE UNIFORM 45

IMPULSE NONUNIFORM 45

X

X

X

X

X

X

Hg

EXPERIMENTAL

DC UNIFORM 4

390

REVIEW

DC UNIFORM 119

260

334

DC NONUNIFORM 260

334

Hg+Ne

EXPERIMENTAL

DC UNIFORM 344

K+Ne

EXPERIMENTAL

DC UNIFORM 127

Kr

EXPERIMENTAL

DC UNIFORM 200

389

390

DC NONUNIFORM 170

THEORETICAL

DC UNIFORM 163

DC NONUNIFORM 163

REVIEW

DC UNIFORM 45

66

163

260

261

285

438

DC NONUNIFORM 45

66

163

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

81
Kr (cont,

)

260

285

AC UNIFORM 45

66

285

AC NONUNIFORM 45

66

285

IMPULSE UNIFORM 45

285

IMPULSE NONUNIFORM 45

285

PARTICLE SURFACE INTERFACE CORONA

XXXX

X

XXX X

X

X

XXXXX XXXX XXXX

N,

EXPERIMENTAL

DC

DC

UNIFORM 29

43

55

56

71

86

88

106

114

121

138

145

148

156

161

164

201

206

218

223

225

266

273

299

308

326

330

353

377 X

389

390

450

NONUNIFORM 34

38

44

56

71

94 X

95 X

X

X

X

X

82
PARTICLE SURFACE INTERFACE CORONA

N^ (cont.) 107 X

^ 114

141 X

142 X

164

169

206 X X

266

275

283

298 X

309

325

326

332 X

377 X

459 X

AC UNIFORM 33

70 X

71

130

137 X

206 X X

326

351

377 X

457

AC NONUNIFORM 33

34 X

44

70 X

71

94 X

95 X X

206 X X

323 X

325

326

336 X

351

363

377 X

453

457

459 X

IMPULSE UNIFORM 33

43 X

70 X

71

137 X

139

148

206 X X

225

83
INTERFACE CORONA

N. PARTICLE SURFACE

2 (cont.

)

267 X X

324 X

356

404 X

IMPULSE NONUNIFORM 33

34

70

71

206

246

324 X

332

355

363

380

382

404 X

443

453

459

461

THEORETICAL

DC UNIFORM 55

65

103

156

163

209

217

268

271

273

342

343

352

374

377 X

419

DC NONUNIFORM 103

163

271

332

377 X

AC UNIFORM 137 X

377 X

AC NONUNIFORM 336 X

377 X

IMPULSE UNIFORM 137

297

X

324 X

IMPULSE NONUNIFORM 324

332

X

REVIEW

DC UNIFORM 32

X

X

X

X

X

X

X

X

84
PARTICLE SURFACE INTERFACE CORONA

Nj (cont.

)

DC NONUNIFORM

AC UNIFORM

AC NONUNIFORM

45

64

65

66

71

73

88

92

96

105

119

148

150

163

209

244

253

264

270

280

285

368

435

436

437

438

45

66

71

73

96

150

163

244

264

270

285

447

45

66

70

71

73

96

105

150

285

45

66

70

71

73

96

150

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

85
N2 (cont.

)

IMPULSE UNIFORM

IMPULSE NONUNIFORM

285

447

45

70

71

73

91

92

96

148

150

244

270

285

45

70

71

73

96

150

244

270

285

447

PARTICLE SURFACE XXXINTERFACE CORONA

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

N +Ne

EXPERIMENTAL

DC NONUNIFORM 107

N^+Ne+SFg

EXPERIMENTAL

DC UNIFORM 82

N2+02

EXPERIMENTAL

DC NONUNIFORM 298

REVIEW

DC UNIFORM 264

285

435

DC NONUNIFORM 264

285

AC UNIFORM 285

AC NONUNIFORM 285

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

N, ,+SF

ixpeI

DC

TMENTAL

UNIFORM 85

88

161

206

86
PARTICLE SURFACE

N2+SFg (cont.) 218

273

402

403 -' DC NONUNIFORM 44

85

142

206

275

AC UNIFORM 130

137 X

206

351

AC NONUNIFORM 44

206

351

363

IMPULSE UNIFORM 137

206

X

IMPULSE NONUNIFORM 132

206

246

363

376

382

443

461

X

THEORETICAL

DC UNIFORM 65

78

166

217

236

271

273

316

419

454

DC NONUNIFORM 271

316

454

AC UNIFORM 137 X

IMPULSE UNIFORM 137 X

IMPULSE NONUNIFORM 132

376

X

REVIEW

DC UNIFORM 45

65

88 X

96

150

250

X X

251 X X

270 X X

INTERFACE CORONA

X

X

X

X

X

X

X

X

X

87
PARTICLE SURFACE INTERFACE CORONA

N^+SF^ (cont.)

DC NONUNIFORM 45 X

96 X X X

150

250 X

251 X X X

270 X X

AC UNIFORM 45 X

96 X X X

150

250 X

251 X X X

AC NONUNIFORM 45 X

96 X X X

150

250 X

251 X X X

IMPULSE UNIFORM 45 X

96 X X X

150

250 X

270 X X

IMPULSE NONUNIFORM 45 X

96 X X X

150

250 X

270 X X

N^O

EXPERIMENTAL

DC UNIFORM 121

122

DC NONUNIFORM 365

THEORETICAL

DC UNIFORM 166

342

343

REVIEW

DC UNIFORM 64

150

244 X X

253

285 X X X

438

DC NONUNIFORM 150

244 X X

285 X X X

AC UNIFORM 150

285 X X X

AC NONUNIFORM 150

285 X X X

IMPULSE UNIFORM 150

244 X X

285 X X X

88
N„0 (cont.)

IMPULSE NONUNIFORM

PARTICLE SURFACE INTERFACE CORONA

150

244

285

X

X

X

X

N^O+0^

EXPERIMENTAL

DC UNIFORM 123

N^O+SF^

EXPERIMENTAL

DC UNIFORM 122

THEORETICAL

DC UNIFORM 166

316

DC NONUNIFORM 316

REVIEW

DC UNIFORM 270 X

DC NONUNIFORM 270 X

IMPULSE UNIFORM 270 X

IMPULSE NONUNIFORM 270 X

NH^

EXPERIMENTAL

DC UNIFORM 389

390

REVIEW

DC UNIFORM 285

DC NONUNIFORM 285

AC UNIFORM 285

AC NONUNIFORM 285

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

NO

REVIEW

DC UNIFORM 66

285

DC NONUNIFORM 66

285

AC UNIFORM 66

285

AC NONUNIFORM 66

285

IMPULSE UNIFORM 285

IMPULSE NONUNIFORM 285

Ne

EXPERIMENTAL

DC UNIFORM 82

125

242

300

344

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

89
Ne (cont. ) 389

390

451

DC NONUNIFORM 107

149

170

IMPULSE NONUNIFORM 149

THEORETICAL

DC UNIFORM 163

DC NONUNIFORM 163

REVIEW

DC UNIFORM 45

64

66

163

260

261

264

280

285

334

435

436

437

438

DC NONUNIFORM 45

66

163

260

264

285

334

AC UNIFORM 45

66

285

AC NONUNIFORM 45

66

285

IMPULSE UNIFORM 45

285

IMPULSE NONUNIFORM 45

285

Ne+0„

EXPERIMENTAL

DC NONUNIFORM 107

Ne+SF^

EXPERIMENTAL

DC UNIFORM

O

Experimental

dc uniform

82

46

PARTICLE SURFACE INTERFACE CORONA

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

90
PARTICLE SURFACE INTERFACE CORONA

Oj (cont. ) 113

120

143

362

389

390

442

DC NONUNIFORM 38

107

169

298

IMPULSE UNIFORM 139

THEORETICAL

DC UNIFORM 152

163

343

374

442

465

DC NONUNIFORM 163

REVIEW

DC UNIFORM 45

64

163

244

253

264

285

DC NONUNIFORM 45

163

244

264

285

AC UNIFORM 45

285

AC NONUNIFORM 45

285

IMPULSE UNIFORM 45

244

285

IMPULSE NONUNIFORM 45

244

285

S^fi

EXPERIMENTAL

DC UNIFORM 42

43

53

55

59

60

71

76

X

X

X

X

X

X

X

X X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

91
SF, (cont.)

DC NONUNIFORM

79

82

83

88

101

114

121

122

124

128

129

153

156

161

164

203

206

218

245

254

266

273

277

278

295

313

319

326

330

349

350

354

373

377

397

399

400

402

403

30

34

38

39

44

50

53

54

57

71

90

93

94

95

114

PARTICLE SURFACE INTERFACE CORONA

X

X

X

X

X

X

X

X

X

X

X

92
PARTICLE SURFACE INTERFACE CORONA

SF^ (cont.)

AC UNIFORM

AC NONUNIFORM

116

118

128

129

131

141

142

149

164

188

206

245

254

266

272

274

275

283

295

302

305

313

319

326

349

377

397

407

434

459

15

33

36

47

70

71

72

98

130

137

206

229

295

313

319

322

326

351

377

392

424

457

15

16

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

93
PARTICLE SURFACE INTERFACE CORONA

SFg (cont.) 24

28 X K X

33

34 X

39 X

44

47 X

50

68 X X

70 X

71

72 X

87

94 X

95 X X

97 X X

98 X X

99 X

102 X

133

182 X X

183 X

206 X X

214 X X

228 X

229 X

230

233

239 X

249 X

294

295 X X

302 X

305

312 X X

313 X

319 X

322 X

326

336 X

351

363

377 X

407 X

424 X

425 X X

434 X

457

459

IMPULSE UNIFORM 15

33

43 X

47 X

70 X

94
PARTICLE SURFACE INTERFACE CORONA

SFg (cont.) 71

72 X

79 X

137 X

139

206 X X

229 X

245 X

267 X X

295 X X

313 X

320 X X

324 X

356

404 X

413

424

IMPULSE NONUNIFORM 14

15 X

16 X

18 X

28 X X X

33

34 X

39 X

47 X

50

70 X

71

72 X

97 X X

102 X

118

132 X

133

135 X

144 X

149 X

178 X

185 X

206 X X

214 X X

228 X

229 X

230

233

239 X

245 X

246 X

249 X

294

295 X X

302 X

305

95
PARTICLE SURFACE INTERFACE CORONA

Fg (cont.) 312 X X

313 X

320 X X

324 X

355 X

363

369 X

376

382 X

404 X

407 X

413

416 X

418 X

424 X

443 X

459 X

THEORETICAL

DC UNIFORM 55

65

78

101

152

156

165

166

167

184

186

207

209

217

227

236

268

271

273

278

316

319

348

349

352

373

377

406

414

417

419

454

X

X

X

X

X

X

X

464 X X

DC NONUNIFORM 188

207

271

X

X

96
PARTICLE SURFACE INTERFACE CORONA

X

X

X

X

g (cont. ) 306

316

319

337

338

348 X

349

359

377 X

406

414

417

434

454

464 X

AC UNIFORM 15

36

137

184

319

348

377

406

X

X

X

X

X

X

AC NONUNIFORM 15

230

319

336

348

377

406

434

X

X

X

X

IMPULSE UNIFORM 15

137

184

324

417

X

X

X

X

IMPULSE NONUNIFORM 15

132

230

324

347

359

376

417

X

X

X

REVIEW

DC UNIFORM 45

48

64

65

- 71

73

88

X

X

92 X X X

96 X X X

X

97
PARTICLE SURFACE INTERFACE CORONA

SF^ (cont.

)

DC

AC

AC

) 105

119 X

150

165

184 X

203

209

244 X X

250 X

251 X X X

253

258 X

269 X X

270 X X

280 X X

285 X X X

368

435

436

437

438

NONUNIFORM 17 X

45 X

48

71

73 X

96 X X X

150

234

244 X X

250 X

251 X X X

258 X

270 X X

285 X X X

447 X

UNIFORM 45 X

70 X

71

73 X

96 X X X

105

150

184 X

250 X

251 X X X

269 X X

285 X X X

NONUNIFORM 45 X

70 X

71

73 X

96 X X X

150

98
PARTICLE SURFACE INTERFACE CORONA

SFg (cont.

)

183 X

215 X X

234

250 X

251 X X X

285 X X X

321 X X

447 X

458 X X

IMPULSE UNIFORM 45

70

71

73 X

X

X

91 X X X

92 X X X

96 X X X

150

184 X

244 X X

250 X

258 X

270 X X

285 X X X

IMPULSE NONUNIFORM 17

45

49

70

71

73

X

X

X

X

X

96 X X X

150

215 X X

234

244 X X

250 X

258 X

270 X X

285 X X X

321 X X

447 X

458 X X

SF^+SO^

THEORETICAL

DC UNIFORM 78

SO^

EXPERIMENTAL

DC UNIFORM 203

REVIEW

DC UNIFORM 64

66 X X

203

244 X X

99
PARTICLE SURFACE INTERFACE CORONA

SO2 (cont..) 253

285

334

435

436

437

438

DC NONUNIFORM 66

244

285

334

AC UNIFORM 66

285

AC NONUNIFORM 66

285

IMPULSE UNIFORM 244

285

IMPULSE NONUNIFORM 244

285

SeFg

EXPERIMENTAL

DC UNIFORM 203

DC NONUNIFORM 30

REVIEW

DC UNIFORM 150

203

285

438

DC NONUNIFORM 150

285

AC UNIFORM 150

285

AC NONUNIFORM 150

285

IMPULSE UNIFORM 150

285

IMPULSE NONUNIFORM 150

285

TeF,

REVIEW

DC UNIFORM

TiCl,

REVIEW

DC

DC

AC

AC

UNIFORM

NONUNIFORM

UNIFORM

NONUNIFORM

IMPULSE UNIFORM

IMPULSE NONUNIFORM

438

285

285

285

285

285

285

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X

X X

X X

X X

X X

X X

X

X

X

X

X

X

100
PARTICLE SURFACE INTERFACE CORONA

Xe

EXPERIMENTAL

DC UNIFORM 389

390

DC NONUNIFORM 170 X X

THEORETICAL

DC UNIFORM 163

DC NONUNIFORM 163

REVIEW

DC UNIFORM 45 X

66 X X

163

438

DC NONUNIFORM 45 X

66 X X

163

AC UNIFORM 45 X

66 X X

AC NONUNIFORM 4 5 X

66 X X

IMPULSE UNIFORM 45 X

IMPULSE NONUNIFORM 45 X

101
VII. Author Index

Abdel-Salam, M.

Abdullah, M.

Abon-Seada, M. S,

Aihara, Y.

Akazaki, M.

Albrecht, H,

Aleksandrov, D. D.

Aleksandrov, G. N.

All, K.

Allen, K. R.

Allen, N. L.

Allibone, T. E.

Altoheh, L.

Ando, N.

Anis, H.

An jo, K.

Aoshima, Y.

Aoyagi, H.

Arahata, Y.

Aral, K.

Arima, J,

Arnesen, A.

Aschwanden, T.

Awad, M.

Azer, A. A,

1

244

465

2

179

3

4

5

232

8

11

9

173

302

12

17

410

2

294

249

19

20

369

21

22

24

180

426

6 7

10 11

13 14 15 16

18

144 180

321

23

102
Babu Rajendran, T. V,

Bahder, G.

Baldo, G.

Banford, H. M.

Banks, A. A.

Barnes, H. C.

Bashara, N. M.

Baumgartner, R,

Bederson, B,

Berberich, L. J,

Berg, D.

Berger, G.

Berger, S.

Bertein, H.

Berthold, V.

Bhalla, M. S.

Biasiutt, G.

Binns, D. F.

Blaha, J.

Blair, D. T. A.

Blodgett, F. W,

Bloss, W, H.

Bobo, J. C.

Boeck, W.

Boecker, H.

Bohme , H

Boillot, A.

25

26

27

28 29

30

26 31

32

464

140

33

34 203 313

35

36 37

38

39

40 41 42

21

43 44

380

45 45 46

47

3

423

48 49

177 370 463

23 50

35

103
Bortnik, I. M. 51 52 53 54 55

Bouillard, J. G. 256

Bouldin, D. W. 330

Boulloud, A. 56

Bouvier, B. 57 134

Boyd, H. A. 58 59 60 61

Bozin, S. E. 62 63

Brand, K. P. 64 65

Bregnsbo, E. 349

Brice, T. J. 457

Brown, S. C. 66

Bruce, F. M. 58

Brzosko, J, S, 67

Brzostek, E. 231

Buchholz, K. H. 68 239

Burger, W. 255

Busch, W. 69

Bychkov, Y. I. 296

Calderwood, J. H. 301

Camilli, G. 70 71 72 73

Carrara, G. 74 75

Carter, J. G. 81

Cernysev, V. J. 439

Chakravarty, B. 342 343

Chalmers, I. D. 76

Chanin, L. M. 77

Chantry, P. J. 78 236

104
Chee-Hing, D. J,

Chen, C. L,

Chiba, M.

Chistyakov, P. N.

Christodoulides, A. A,

Christophorou, L. G.

Coates, R.

Cobine, J. D.

Cohen, E. H.

Comsa, R. P.

Cones, H. N.

Conti, V. J.

Cooke, C. M.

Cookson, A. H.

Cortina, R.

Craggs, J. D.

Crichton, B, H.

Crichton, G. C.

Cronin, J. C.

Crowe, R. W.

Dakin, T. W.

Dale, S. J.

Daniel, T. N.

Das, M. K.

Davies, D, E.

79

236

415

80

331

81

330

86

87

88

13

341

89

54

94

92

99

82

331

83 84 85

24 377 440

90

95

95

267

91

96

92

97

93

98

100 340

40

304

101

59

102

103

105

135

106

107

108

41

311 361

137

60

104 115

313 459

136

42 283 285

362

109 262

105
Davies, D. K. 110 111 236

Davis, G. H. L. 112

DeBitetto, D, J. 113

Degnan, W. J. 176

Dellera, L. 74

Devins, J. C. 104 114 115

Diessner, A. 116

Dincer, M. S. 161

Dring, D. 9 10 11

Driver, C. 117

Dubois, A. 423

Dupuy, J. 118

Dutton, J. 86 106 119 120 121

122 123 124 125 126

Ellington, H. I. 127

Endo, F. 128 129

Ermel, M. 130 131

Eteiba, M. B. 132 376

Evans, N. B. 120

Facklam, T. 133

Fallou, B. 134

Farish, 0. 97 98 135 136 137

138

Felsenthal, P. 139

Fiklik, V. 240

Fischer, A. 177 463

Fisher, L. H. 113 140 143 157 224

225 293

106
Fitch, R. K. 108

Fleming, S. P. 178

Foord, T. R. 141 142

Freely, J. B. 143

Frost, L. S. 253

Fujinama, H. 144

Fujita, H. 145

Fujiwara, Y. 320 321 322

Galand, J. 134

Gallet, G. 35 146 147 256 257

Gallimberti, I. 27

Ganger, B. 148 149 150

Garcia, F. G. 26

Garcia, H. N. 27 35

Gary, C. 3 5

Geballe, R. 151 152

George, D. W. 153

Gerhold, J. 154

Gervais, Y. 326 351

Gilbert, A. 118

Gockenbach, E. 155 156

Golden, D. E. 157

Goldman, M. 35 158

Goodyear, C. C. 62 63 366 367

Gordon, G. S. 71

Gorin, B. N. 159

Gosho, Y. 160

107
Govinda Raju, G. R.

Grenon, J. F,

Griffiths, R. F.

Grunberg, P.

Hackam, R.

Hagenguth, J. H.

Hahn, G.

Hampton, B. F.

Hara, M.

Harada, T.

Harbec, G.

Harris, F, M.

Hasebe, K.

Hasegawa, H.

Hauschild, W.

Hayashi, H.

Hayashi, M.

Hazel, R,

Heilbronner, F. W.

Heisen, A.

Hepworth, J. K.

Hermstein, W.

Heylen, A. E. D.

Hickam, W. M.

161 162 163 164 165

166 167 174 364 365

289 290

357

168

162 163 164 165 166

167 169 170 171 172

173 174 365

175 176

177

178

179

2 180

286 287 288 289 290

86 106 121 122 123

124

181

401

68 182 183 184 185

186 239 305 306

413

187

188

189

190

191 192

193 194

195 196 197 198 199

200 201 202

203

108
Higashino, T,

Hileman, A. R.

Hixson, W. A.

Hoffman, R. L.

Hoh, S.

Honda, K.

Hood, R. J.

Hopkins, B. J.

Horii, K.

Howard, P. R.

Hughes, D. B.

Hughes, M. H,

Hunter, S. R,

Husain, E.

Hutzler, B.

Hutzler-Barre, D,

IEEE Committee Report

Ibrahim, O, E.

Ichihara, Y.

Ikeda, C.

Iliceto, F.

Inamura, S.

Inuishi, Y,

Isa, H.

Isaksson, K.

Ishikawd, R.

Iskoldskii, A. I.

413

441

204

204

325

205

43

109

323

206

121

125

81

208

27

210

212

137

213

214

237

249

215

216

291

129

296

324

207

122 123

209 316 317

35 146 210 211

211

109
Itaka, K.

Ito, Y.

Itoh, H.

Ivanov, V. L.

Jahn, G.

Jahn, H.

James, D. R.

Jervis-Hunter , G.

Johansen, I.

Jones, B.

Jones, G. J.

Jones, J.

Jones, R. E.

Jouaire, J.

Kachickas, G. A.

Kachler, A. J.

Karlsson, P. W.

Kawaguchi, Y.

Kawai, H.

Kawane, K,

Kedzia, J.

Khalifa, M.

Kichikawa, T.

Kielmann, F.

Kind, D.

Kishijima, I.

Kita, K.

413

2

217

6

380

219

82

220

369

221

124

223

448

27

224

226

227

228

181

318

231

232

128

186

234

410

419

218 399

83 84 85 330

222

449

35

225

349 350

229 230

129

233

110
Klewe, R. C.

Kline, L. E.

Klobukowska, J.

Knudsen, N.

Kohrman, W,

Kopainsky, J.

Korshunov, G. S.

Kosztaluk, R.

Kouno, T.

Kourtev, J.

Kremnev, V, V.

Krey, B.

Kromer, I. L.

Kucera, J.

Kucukarpaci, H. N,

Kuffel, E.

Kuffel, J.

Kulkarni, S. V.

Kuttner, H.

Kuwahara, H.

LaForest, J. J.

Lacey, R.

Laghari, J. R.

Lakshminarasimha, C. S.

Lanoue, T. J.

Lautensclager, H. G.

Lebeda, J.

191

235

67

237

238

65

297

257

145

344

297

68

147

240

242

188

363

247

316

248

249

226

147

250

25

453

133

350

192

236

325

345

239

257

241

243 244 245 246

461

317

321

251

252 402 403

111
Lee, A.

Lee, Z. Y.

Lemke, E,

Leon, B.

Leroy, G.

Lewis, T. J.

Liao, T. W.

Linck, H.

Lindsay, E. W,

Linn, F. S.

Llewellyn-Jones, F,

Lobley, E. H.

Loeb, L. B.

Los, E. J.

Lucas, J.

Luxa, G.

Lyapin, A. G.

MacAlpine, J. M. K,

Malik, N. H.

Mailer, V. N.

Mansoor, F. F.

Manterfield, R. J.

Marton, J. P.

Masetti, C,

Mason, J. H.

Mastovsky, J.

253

254

255

423

35

201

72

259

33

151

260

191

264

265

242

105

266

267

268

273

276

44

315

332

377

280

380

307

147 256 257

202

175 241 258

460

261 262 263

298

252

269 270 271 272

274 275 382 461

277 278 279

i

112
Mathis, R. A.

Matsuo, H,

McAllister, I. W.

McClure, G. W.

McCorkle, D. L.

McCormick, N. R,

McElroy, A, J,

McNeall, P. I.

Meats, R. J.

Meek, J. M.

Menemenlis, C.

Menemenlis, H.

Menes, M.

Menju, S.

Mesyats, G, A,

Miller, C. G.

Miller, H. C.

Mirza, J. S,

Misakian, M.

Miyachi, I.

Miyake, K.

Miyoshi, Y.

Mizukami, T,

Morgan, G, B.

Mori, N.

Morris, W. T.

81

330

328

281

282

85

283

26

404

284

285

286

291

7

292

228

296

298

299

301

434

309

411

187

302

120

213

126

82 83 84 85

287 288 289 290

293

229 230 294 295

297

300

412

113
Moruzzi, J. L.

Mosch, W.

Mukhedkar, D,

Muller, E. K.

Murai, Y.

Nagata, M.

Nagata, S.

Naidu, M. S.

Nakanishi, K,

Narbut, P.

Naumann, W.

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Nishihara, S,

Nitta, T.

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Ohno, H.

Ohuch, Y.

Olendzkaia, N. F,

Olivier, G.

Oppermann, G.

Orlinov, V.

Oshige, T,

303 304

305 306 307

326 351

308

20

309

20

25 276 277 278 310

311 373 402 403

312

313

314

315

208 209 316 317

349

359

413

312 318 319 320 321

322

323 324

145 325

294

410

4

326

105

344 345

327 328

114
Ozawa, J. 129

Pace, J. D. 329

Pace, M. O. 330

Pai, R. Y. 330 331

Pai, S. T. 332

Panov, A. A. 55

Papadias, B. C. 333

Papoular, R. 334

Parekh, H. 335 336 337 338 383

384 385

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Park, J. H. 341

Parker, A, B. 263 329

Paul, J. C. 342 343

Pech, P. 344 345

Pedersen, A. 227 281 346 347 348

349 350

Pelletier, J. M. 351

Penney, G. W. 387

Perlin, A. S. 352

Perry, E. R. 102

Pfeiffer, W. 353 354 355 356

Phelps, C. T. 357

Phillips, K. 8

Pilling, J. 358

Pinnekamp, F. 359

Plump, R. E. 71 72 73 258

Podporkyn, G. V. 5 7

115
Prasad, A. N.

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Rohlfs, A. F.

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310 311 360 361 362

Z3«

139

4

363

250 251 269 270 271

272 273 274 275 382

461

232

465

245

364 365

366 367

152

247

368 369

439

370

371

153

372

373

374

146

132 375 376 377 424

378 379

176 241

77

116
Rothhardt, L.

Rudge, A. J.

RyzkOr H.

Saelee, H. T.

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Shibuya» Y.

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380

30

381

242

274 382

342 343

218

229 230

232

335 383 384 385

74

302

314

386

387

388

389 390

391

392

393 394

395

396

100

397 398 450

312 319 320 321

217 218 399 400 401

159

117
Siddagangappa, M, C,

Sigmond, R. S.

Sikolov, S. M.

S imon , M , F

,

Simons, J. H.

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Taschini, A.

Tatuso, T.

402

158

6

27

457

404

231

135

301

405

98

406

14

79

338

407

408

409

420

217

413

321

294

144

418

125

100

420

403

35 256

136

15

279

383

16

335

384

17 18

336 337

385

410 411 412

430 431 432

218 399 400 401

295

414 415

419 443

416 417

118
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Theophilus, G. D.

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29

138

421

275

75

423

191

424

93

426

388

427

432

434

247

145

94

105

435

424

356

439

440

441

3

442

20

419

58 61 76 101

422

192 220

425

116

428 429 430 431

433

436 437 438

425

249 416 417 418

443

119
Watanabe, Y.

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420

445

222

397

451

452

46

454

455

89

456

457

57

105

31

391

78

33

318

297

246

214

309

312

462

177

464

226

431 432 433 444

446

447 448 449

398 450

453

112

105

95 99 458

34 313 459 460

322

461

463

120
Zaghloul, A. R. M.

Zentner, R.

465

396

121
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441. C. F. Wagner and A. R. Hileman, "Mechanism of Breakdown

of Laboratory Gaps", AIEE Trans., Vol. 80, Part III,

pp. 604-622 (1961).

160
442. K. H. Wagner, "Ionization, Electron-Attachment,

Detachment, and Charge-Transfer in Oxygen and Air", Z.

Physik, Vol. 241, pp. 258-270 (1971).

443. T. Watanabe and T. Takuma, "The Breakdown and Discharge

Extension of Long Gaps In Nitrogen+SF^ and Air+SF^ Gas

Mixtures", J. Appl. Phys., Vol. 48, no. 8,

pp. 3281-3287 (1977).

444. Y. Watanabe, "Switching Surge Flashover Characteristics

of Long Air Gaps and Long Insulator Strings", Elec.

Eng. in Japan, Vol. 86, no. 12, pp. 96-101 (1966).

445. Y. Watanabe, "Switching Surge Flashover Characteristics

of Extremely Long Air Gaps", IEEE Trans, on Power

Appar. Syst., Vol. PAS-86, no. 8, pp. 933-936 (1968).

446. Y. Watanabe, "Switching Impulse Flashover

Characteristics of Thin Wire Gaps", IEEE Trans, on

Power Appar. Syst., Vol. PAS-90, no. 5, pp. 2301-2305

(1971).

447. R. T. Waters, "Spark Breakdown in Non-Uniform Fields",

Electrical Breakdown of Gases , ed. by J. M. Meek and

J. D. Craggs, John Wiley and Sons, New York,

pp. 385-532(1978).

448. R. T. Waters and R. E. Jones, "The Impulse Breakdown

Voltage and Time-Lag Characteristics of Long Gaps in

Air, I. The Positive Discharge", Phil. Trans, of the

Royal Soc. of London, Series A, Vol. 256, pp. 185-212

(1964).

449. R. T. Waters and R. E. Jones, "The Impulse Breakdown

and Time-Lag Characteristics of Long Gaps in Air, II.

The Negative Discharge", Phil. Trans, of the Royal Soc.

of London, Series A, Vol. 256, pp. 213-234 (1964).

450. P. K. Watson and A. H. Sharbaugh, "The Electric

Strength of Nitrogen at Elevated Pressures and Small

Gap Spacings", J. Appl. Phys., Vol. 40, no. 1,

pp. 328-334 (1969).

451. G. F. Weston, "Glow Discharge Characteristics of

Helium-Neon Mixtures", Brit. J. Appl. Phys., Vol. 10,

pp. 523-526 (1959).

452. L. C. Whitman, "Impulse Voltage Tests on Air and C2Fg"r

IEEE Trans, on Elec. Insul., Vol. 1, no. 2, pp. 44-48

(1965).

161
1

453. L. C. Whitman and T. J. Lanoue, "The Effect of Gas-Cell

Diameter on Dielectric Strength Determination", IEEE

Trans, on Elec. Insul., Vol. EI-4, no. A, pp. 104-110

(1969).

454. A, Wieland, "Breakdown Mechanisms in Electronegative

Gases (SF,) and in Gas Mixtures", ETZ-A, Vol. 94,

pp. 370-373 (1973).

455. J. Wiesinger, "Reduction of the Electric Strength of

Spark Gaps from Line Impulse Voltage", Bull.

Schweizer ischen Elektro-Tech. Vereins, Vol. 58,

pp. 113-118 (1967).

456. B. G. Williams, "Impulse-Voltage Breakdown of Cold

Pressurized Helium", Proc. lEE, Vol. 121, no. 2,

pp. 161-164 (1974).

457. W. A. Wilson, J. H. Simons, and T. J. Brice, "The

Dielectric Strength of Gaseous Fluorocarbons" , J. Appl.

Phys., Vol. 21, pp. 203-205 (1950).

458. R. E, Wootton, "Some Aspects of Breakdown in Gases",

IEEE Trans, on Elec. Insul., Vol. EI-17, no. 6,

pp. 499-504 (1982).

459. C. N. Works and T. W. Dakin, "Dielectric Breakdown of

Sulfur Hexafluoride in Nonuniform Fields", AIEE Trans.,

Vol. 72, pp. 682-687 (1953).

460. C. N. Works and E. W. Lindsay, "Electrical Breakdown of

Gases and Vapors of Chloro-Fluoro-Hydrocarbons" , AIEE

Trans., Vol. 77, Part III, pp. 1659-1663 (1958).

461. A. Yializis, N. H. Malik, A. H. Qureshi, and E. Kuffel,

"Impulse Breakdown and Corona Characteristics for RodPlane Gaps in Mixtures of SFg and Nitrogen with Less

Than 1% of SFg Content", IEEE Trans, on Power Appar.

Syst., Vol. PAS-98, no. 5, pp. 1832-1840 (1979).

462. D. R. Young, "Electrical Breakdown in CO2 from Low

Pressures to the Liquid State", J. Appl. Phys.,

Vol. 21, pp. 222-231 (1950).

463. P. Zacke, A. Fischer, and H. Boecker, "Breakdown

Phenomena of Rod-Rod Gaps Under Impulse Voltages of

Opposite Polarity on Both Electrodes", IEEE Trans, on

Power Appar. Syst., Vol. PAS-96, no. 2, pp. 701-708

(1977).

464. W. Zaengl and R. Baumgartner, "On the Cause of

Deviations from Paschen's Law in SF,", ETZ-A, Vol. 96,

no. 11, pp. 510-514 (1975). ^

162
465. A. R. M. Zaghloul, R. M. Radwan, and M, S. Abon-Seada,

"Characteristic Time of Oxygen: Calculation and

Theoretical Study", IEEE Trans, on Elec. Insul.,

Vol. EI-11, no. 1, pp. 28-32 (1976).

163
IX. Technical Conference Proceedings

1. International Symposium on Gaseous Dielectrics.

Proceedings:

a) Gaseous Dielectrics III, ed. by

L. G. Chr istophorou, Pergamon Press, New York

(1982).

b) Gaseous Dielectrics II, ed. by

L. G. Chr istophorou, Pergamon press. New York

(1980).

c) Gaseous Dielectrics, ed. by

L. G. Chr istophorou, NTIS, CONF-780301, (1978).

2. Gaseous Electronics Conference.

Proceedings:

Abstracts published annually for thirty-six

conferences in the Bulletin of the American

Physical Society.

3. IEEE International Symposium on Electrical Insulation.

Proceedings:

Conference records for 1982, -80, -78, -76

published by the Institute for Electrical and

Electronics Engineers, Inc., New York.

4. Conference on Electrical Insulation and Dielectric

Phenomena (CEIDP).

Proceedings

:

a) Annual reports for 1981-3 CEIDP published by

Institute for Electrical and Electronics

Engineers, Inc., New York.

b) Annual reports for CEIDP before 1981 published

by National Academy Press, Washington, DC.

5. International Coference on Gas Discharges and Their

Applications (CGA).

Proceedings

:

a) Proceedings of Seventh ICGA, 1982 published by

Peter Peregrinus Ltd. , London.

b) Proceedings of Sixth-First ICGA (1980-70)

published by Institution of Electrical

Engineers, London.

6. International Symposium on High Voltage Engineering.

Proceedings:

Four conferences from 1977-83, papers distributed but

proceedings not published.

164
7. International Conferences on Phenomena in Ionized

Gases.

Proceedings:

Sixteen conferences from 1951-1983, proceedings

possibly available from different publishers.

T^U.8. GOVERNMENT PRINTING OFFICE; 198i* kZO 997 70

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2. Performing Organ. Report No, 3. Publication Date April 1984

4. TITLE AND SUBTITLE

Bibliography of Data on Electrical Breakdown in Gases

5. AUTHOR(S)

R. J. Van Brunt and W. E. Anderson

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bibliography; critical fields; corona onset; discharge inception; electrical

breakdown; gases; sparking potentials

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