Energy loss, range, path length, time-of-flight, straggling, multiple scattering, and nuclear interaction probability. In two parts. Part 1. For 63 compounds Part 2. For elements 1 ≤ Z ≤ 92

Atomic Data and Nuclear Data Tables

Volumn 27, Issue 2-3, 1982, Pages 147-339

  Janni, Joseph F ^a  

^a AIR FORCE RESEARCH LABORATORY   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 0346097533     PISSN: 0092640X     EISSN: 10902090     Source Type: Journal    
DOI: 10.1016/0092-640X(82)90004-3     Document Type: Review

References (542)

1. Reevaluation of X-Ray Atomic Energy Levels
2. The 1973 Least-Squares Adjustment of the Fundamental Constants
3. The 1973 Table of the Fundamental Constants
4. Atomic Data Related to X- and XUV Radiation
5. Absorption of α-Rays and H-Particles by Matter Penetration and Retardation
6. The Energy-Range Relations for Deuterons, Protons, and Alpha Particles
7. Mass of the Meson by the Method of Momentum Loss
8. The Range of Deuterons in Heavy Water and of Protons in Hydrogen
9. Theoretical Range-Energy Values for Proton in Air and Aluminum
10. Berechnung der Reichwerte von Protonen in Leichtatomigen Stoffen
11. Range-Energy Relations for Protons in Substances Containing C, H, O, A, and Xe
12. Ranges of Cyclotron Particles in Various Materials
13. Range-Energy Curves
14. The Passage of Charged Particles Through Matter
15. The Range-Energy Relation for Slow Alpha-Particles and Protons in Air
16. The Range-Energy Relation for Slow Alpha-Particles and Protons in Air
17. Loss of Energy of Fast Protons in Matter with Particular Reference to Their Range in Carbon
18. Range of Fast Protons in Matter
19. On Some Approximate Relations Between the Energy the Specific Ionization and the Range of High Energy Particles
20. Empirical Range Energy Relations in Gases and Solids
21. UCRL-2301
22. Range-Energy Relation for Protons in Various Substances
23. The Energy Loss of Charged Particles in Matter
24. Range-Energy Relations for Protons in Be, C, Al, Cu, Pb, and Air
25. Penetration of Charged Particles in Matter
26. Energy Loss and Range of Charged Particles in Compounds
27. Range-Energy Relationship of Charged Particles in Silicon
28. 2
29. Tables of Range and Rate of Energy Loss of Charged Particles of Energy of 0.5 to 150 Mev
30. Passage of Charged Particles Through Matter
31. Passage of Charged Particles Through Matter
32. Passage of Particles Through Matter
33. High Energy and Nuclear Physics Data Handbook
34. Tables of Energy Losses and Ranges of Heavy Charged Particles
35. Additional Stopping Power and Range Tables for Protons, Mesons, and Electrons
36. Data Compilation and Evaluation of Space Shielding Problems, Range and Stopping Power Data
37. Range-Energy Relations for Low-Energy Ions
38. Approximations and Interpolation Rules for Ranges and Range Stragglings
39. Calculations of Energy Loss, Range, Pathlength, Straggling, Multiple Scattering, and the Probability of Inelastic Nuclear Collisions for 0.1-to 1000-Mev Protons
40. Charged Particle Tracks in Polymers: No. 3-Range and Energy Loss Tables
41. High-Energy Particle Data, Volume II: Range-Energy and rmdE/dX Plots of Charged Particles in Matter
42. Ionization Loss, Range, and Multiple Scattering
43. The Passage of Charged Particles Through Silicon
44. A Range-Energy Table for Heavy Particles in Silicon
45. Stopping Power, Range, and Terminal Ionization of any Nucleus with 0.01 to 500 Mev/amu in any Nongaseous Material, Including Nuclear Effects
46. Passage of Charged Particles Through Matter
47. Range and Stopping-Power Tables for Heavy Ions
48. Projected Ion Range Data for Silicon Planar Technology
49. Stopping Powers and Ranges for Muons, Charged Pions, Protons, and Heavy Ions
50. Mass Stopping Power and Pathlength of Neutron Produced Recoils in Tissue and Tissue Equivalent Materials
51. The Rate of Ionization Loss and Intrinsic Resolution of Cadmium Telluride Detectors
52. The Penetration of Heavy Charged Particles Through Gallium Arsenide Detectors
53. New Empirical Relations for Stopping Power and Range of Charged Particles
54. A Method for Energy-Loss and Range Calculations Based on Empirical Approximations
55. Tracks of Nuclear Particles in Photographic Emulsions
56. Photographic Plates for Use in Nuclear Physics
57. Emulsion Technique
58. Particle Identification with Photographic Emulsions, and Related Problems
59. Emulsion Tables. I. Heavy-Particle Functions
60. Numerical Tables of Relations Frequently Used in Nuclear Emulsion Work
61. Measurement of Ionization in Nuclear Emulsions
62. The Range-Energy Relation in Nuclear Emulsions
63. Nuclear Emulsions
64. The Range-Energy Relation in Emulsion. Part II — The Theoretical Range
65. Theory of the Passage of Fast Corpuscular Rays Through Matter
66. The Passage of α- and β- Particles Through Matter and Born's Theory of Collisions
67. Stopping Power of Matter for Swiftly Moving Charged Particles
68. Stopping Power of Atoms with Several Electrons
69. Nuclear Dynamics Experimental
70. The Ionization Method of Measuring Neutron Energy
71. The Capture of Negative Mesotrons in Matter
72. The Penetration of Atomic Particles Through Matter
73. On the Primary Processes in Radiation Chemistry and Biology
74. Ionization by Fast Particles
75. Range-Energy Relations
76. Radiative Correction for the Collision Loss of Heavy Particles
77. Stopping Power and Ion Density
78. Energy Loss in Matter by Fast Particles of Low Charge
79. Passage of Radiations Through Matter
80. Penetration of Heavy Charged Particles in Matter
81. Index and Annotated Bibliography of Range and Stopping Cross Section Data
82. Survey of Stopping Power
83. A Qualitative Interpretation of the Mean Electron Excitation Energy in Atomic Collisions
84. Interaction of Radiation with Matter
85. Energy Dissipation by Ions in the kev Region
86. Penetration of Protons Alpha Particles and Mesons
87. Range Concepts and Heavy Ion Ranges (Notes on Atomic Collisions, II)
88. Stopping Power of Electron Gas and Equipartition Rule
89. Introduction to Radiation Damage Theory
90. Preface to “Studies in Penetration of Charged Particles in Matter,”
91. The Passage of Charged Particles Through Matter
92. Stopping of Swift Protons Evaluated from Statistical Atomic Model
93. Approximation Method in Classical Scattering by Screened Coulomb Fields (Notes on Atomic Collisions, I)
94. Contribution of Spin Anomalous Magnetic Moment and Form Factors to the Stopping Power of Matter for Protons and Muons at Extreme Relativistic Energies
95. Three-Parameter Formula for the Electronic Stopping Cross Section at Nonrelativistic Velocities
96. Brice's later article “Energy Dependence of the Low-Energy Electronic Stopping Power”
97. On the Restricted Energy Loss of Relativistic Charged Particles in Matter
98. Channeling and Related Effects in the Motion of Charged Particles Through Crystals
99. An Experimental Investigation of Charge-Dependent Deviations From the Bethe Stopping Power Formula
100. 3 Effect in the Stopping Power of Matter for Charged Particles
101. Charge Dependence of Ionization Energy Loss for Relativistic Heavy Nuclei
102. 3 Corrections to Energy Loss and Range
103. Corrections to the Bethe-Bloch Formula for Average Ionization Energy Loss of Relativistic Heavy Nuclei
104. 3-Dependent Stopping Power and Range Contributions
105. 3 Effect on Composite Target Mean Excitation Energies Derived From Stopping Power Measurements
106. 3 Contribution to Stopping Power on the Evaluation of Mean Excitation Potentials and Shell Corrections
107. 3 Effect on the Stopping Powers of Several Metallic Elements for 28.8 MeV Alpha Particles: Deviations of Experimental Data from Theories
108. 4-Corrections to Stopping of Swift Charged Particles
109. The Ionization Loss of Energy in Gases and Condensed Materials
110. The Ionization Loss of Energy of Fast Charged Particles in Gases and Condensed Bodies
111. The Density Effect for the Ionization Loss in Various Materials
112. The Energy Loss of a Fast Charged Particle by Cerenkov Radiation
113. On the Energy Lost by a Relativistic Ionizing Particle in a Material Medium and on the Cerenkov Radiation
114. The Density Effect for the Ionization Loss in Various Materials
115. Dependence of the Average Charge of an Ion on the Density of the Surrounding Medium
116. Density Effect for the Ionization Loss of Charged Particles
117. Density Effect for the Ionization Loss of Charged Particles, II
118. General Expression for the Density Effect for the Ionization Loss of Charged Particles
119. Density Effect in the Ionization Energy Loss of Fast Charged Particles in Matter
120. Some Aspects of the Interactions of Fast Charged Particles with Matter
121. Experimental Results on Charge-Changing Collisions of Hydrogen and Helium Atoms and Ions at Kinetic Energies Above 0.2 keV
122. + Ions Transmitted Through Carbon Foils at 60–300 kev
123. Charge Fractions and Excited-Atom Populations of 8–100 keV Deuterium Beams Emerging From Solid Films of C, Mg, and Au
124. Atomic Shielding Constants
125. Asymptotic Expression for the Stopping Power of K-Electrons
126. Stopping Power of K-Electrons
127. Asymptotic Formula for Stopping Power of K-Electrons
128. Stopping Power of K-Electrons
129. Stopping Power of L-Electrons
130. Tight-Binding Corrections of Stopping Powers
131. X-Ray Production by Heavy Charged Particles
132. Higher Shell Corrections in Stopping Power
133. Effects of Shell Corrections to Stopping Power in Theoretical Dose Studies
134. Nuclear Science Series Report No. 39
135. Rapid Computation of Specific Energy Losses for Energetic Charged Particles
136. Stopping Power of M-Electrons
137. The L-Shell Correction in Stopping Power
138. A FORTRAN Program for the Energy Loss of Heavy Charged Particles
139. Cross Sections for the Formation of the Compound Nucleus by Charged Particles
140. Summary of High-Energy Nucleon-Nucleon Cross-Section Data
141. Charged Particle and Total Reaction Cross Sections for Protons at 9.85 Mev
142. 10-Mev Proton Reaction Cross Sections Compared with Surface and Volume Absorption Optical Models of the Nucleus
143. 103
144. Total Proton Reaction Cross Section of Copper at 9 Mev
145. 139 from 5 to 10.5 Mev
146. 10-Mev Proton Reaction Cross Sections for Several Elements
147. 10-Mev Proton Reaction Cross Sections for Several Elements
148. ORNL-3383
149. Proton Total Reaction Cross Sections of Carbon from 16 to 28 Mev
150. Thresholds for (p,n) Reactions on 26 Intermediate-Weight Nuclei
151. Total Proton and Deuteron Reaction Cross-Sections in the Energy Range 8.5 to 11.5 Mev
152. Proton Total Reaction Cross Sections at 16.4 Mev
153. Proton Reaction Cross Sections and Strength Functions
154. (p,n) and (p,2n) Cross Sections of Nine Elements Between 7.0 and 15.0 Mev
155. Analytic Representation of Nonelastic Cross Sections and Particle-Emission Spectra From Nucleon-Nucleus Collisions in the Energy Range 25 to 400 Mev
156. An Associated Particle Method for Measuring Total Proton Reaction Cross Sections at 15.8 Mev
157. Proton Total Reaction Cross Sections in the 10–20- Mev Range: Calcium -40 and Carbon -12
158. Proton Total Reaction Cross Sections in the 10–20- Mev Range: Calcium -40 and Carbon -12
159. Comparison of Calculated Radiochemical Cross Sections with Experimental Results for Incident Protons and π Mesons in the 50- to 400- Mev Region: Effect of Varying a Few Nuclear Parameters in the Calculations
160. Reaction Cross Sections for 30- to 60-Mev Protons on Various Elements: Comparison of Theoretical Results with Experiments
161. Reaction Cross Section for Protons in the Energy Range 220–570 Mev
162. Proton-Helium Total Reaction Cross Sections Between 18 and 48 Mev
163. Nuclear and Heavy-Ion Total and Absorption Cross Section for Selected Nuclei
164. Loss of Protons by Nuclear Interactions in Sodium Iodide Crystals
165. Loss of Charged Particles by Nuclear Interactions in Scintillators
166. A Measurement of Nuclear Interactions in Plastic Scintillators
167. Loss of Protons by Nuclear Interactions in Various Materials
168. The Loss of Protons by Nuclear Inelastic Interactions in Various Materials
169. The Loss of Protons by Nuclear Inelastic Interactions in Various Materials
170. Loss of Protons in Thin Absorbers
171. On the Theory of Scattering of Protons by Protons
172. The Range and Straggling of Protons Between 35 and 120 MeV
173. Range Straggling of a Nonrelativistic Charged Particle
174. Degradation and Range Straggling of High-Energy Radiations
175. Range Straggling in Nuclear Track Emulsion
176. Range Straggling of Charged Particles in Be, C, Al, Cu, Pb, and Air
177. Energy Loss Straggling of Protons and Mesons: Tabulation of the Vavilov Distribution
178. Fluctuations of Energy Loss by Heavy Charged Particles in Thin Absorbers
179. Fluctuations of Energy Loss by Heavy Charged Particles in Thin Absorbers
180. Straggling and Particle Identification in Silicon Detectors
181. Relative Ionization of Protons Near the End of Their Range
182. Energy Loss and Energy Loss Straggling of N, Ne, and Ar Ions in Thin Targets
183. Multiple Scattering of Electrons
184. Multiple Scattering of Electrons, II
185. Electron Path Lengths in Multiple Scattering
186. Theory of Scattering of Fast Charged Particles. Part I: Single Scattering by the Shielded Coulomb Field
187. Theory of Scattering of Fast Charged Particles. Part II: Plural and Multiple Scattering (1)
188. Multiple Scattering in an Infinite Medium
189. On the Theory of Multiple Scattering
190. Moliere's Theory of Multiple Scattering
191. Graphs of RMS Multiple Scattering Angle and Range Straggling for High-Energy Charged Particles
192. Multiple Scattering of Relativistic Electrons
193. Inelastic Collisions and the Moliere Theory of Multiple Scattering
194. Theory of Electron Penetration
195. Theory of Multiple Scattering
196. Theory of Multiple Scattering; Second Born Approximation and Corrections to Moliere's Work
197. Difference in the Multiple Scattering of Electrons and Positrons
198. Monte Carlo Calculation of the Penetration and Diffusion of Fast Charged Particles
199. The Theory of Small-Angle Multiple Scattering of Fast Charged Particles
200. Multiple Scattering Corrections for Proton Range Measurements
201. Uber Ionisation und Reichweite von H-Kanalstrahlen in Luft und Wasserstoff
202. Geschwindigkeitsverlust von H-Kanalstrahlen beim Durchgang durch feste Korper
203. Energieverluste longsamer Kanalstrahlen beim Durchgang durch feste Korper
204. Further Investigations with a Wilson Chamber II-The Range and Velocity of Recoil Atoms
205. Uber die Geschwindigkeitsabnahme von H-Kanalstrahlen in Metallen
206. The Range of Protons in Aluminum and in Air
207. The Stopping Power of Lithium for Low Energy Protons
208. Collisions of Alpha-Particles with Neon and Deuterium Nuclei
209. Die Frage der Impulsubertragung bei der Ionisierung durch Kanalstrahlen
210. Range and Ionization Measurements on High Speed Protons
211. 2
212. Uber die Ionisierung von Orto - und Parawasserstoff durch Protonen - und Deuteronenkanalstrahlen
213. The Loss of Energy of Hydrogen Ions in Traversing Various Gases
214. A Study of the Nuclear Transmutations of Light Elements by the Photographic Method
215. Proton Stopping Power of Solid Beryllium
216. Energy Straggling of Protons
217. 2, He, and Li Nuclei in Au and A1
218. The Radiological Use of High Energy Deuteron Beams
219. 2 Nuclei in Gold and Aluminum
220. A Cloud-Chamber Study of the Disintegration of Lithium by Slow Protons
221. 3 by Deuterons
222. Proton Range-Energy Relation
223. Proton Stopping Power of Gold
224. The Stopping Power for Protons in Several Metals
225. The Relative Stopping Power of Metals for 12 Mev Protons
226. Determination Experimentale des Relations Parcourg-energie et du Pouvoir de Ralentissement des Emulsions Nucleaires pour les Particules Chargees de Faible Energie
227. Range-Energy Relation for Protons in Nuclear Emulsions
228. Nuclear Emulsions and the Measurement of Low Energy Neutron Spectra
229. Range/Energy Relation for Slow Protons in the Photographic Emulsion
230. Proton Range-Energy Relation for Nuclear Emulsion
231. Proton Range-Energy Relation for Eastman NTA Emulsions
232. Stopping Power and Energy Loss for Ion Pair Production for 340 Mev Protons
233. The Stopping Power of Metals and Semiconductors
234. Range-Energy Relation for 340 Mev Protons
235. Range-Energy Relation for Protons and Alpha-Particles in Photographic Emulsions for Nuclear Research
236. The Energy Loss of Slow Deuterons in Heavy Ice
237. A Cloud Chamber Investigation of Low Energy Range-Energy Relations
238. The Stopping Cross Section of Several Gases for Protons and Deuterons
239. The Relative Ionization Produced by Low Energy Protons Deuterons and Alpha-Particles in Various Gases
240. The Range-Energy Relation for Protons in Aluminum
241. The Range-Energy Relation for Protons in Aluminum
242. The Range of 18-Mev Protons in Aluminum
243. 2O Ice
244. Effect of Chemical Structure on Stopping Powers for High Energy Protons
245. Accuracy Limitations in Determinations of Particle Energies and Vector Momenta in Nuclear Emulsions
246. The Range-Energy Relation for Protons and Alpha-Particles in Diluted Ilford G5 Emulsions
247. Range-Energy Relations for Alpha-Particles and Deuterons in the Kodak NTB Emulsion
248. Passage of Heavy Particles Through Matter
249. Mean Excitation Potentials
250. The Absolute Energy Loss of 18-MeV Protons in Various Materials
251. The Energy Loss of Protons in Metallic Foils and Mica
252. The Energy Loss of Low Energy Protons in Some Gases
253. The Energy Loss of Hydrogen, Helium Nitrogen, and Neon Ions in Gases
254. 4He Reactions
255. The Relative Stopping-Power of Hydrogen and of Helium for Slow Alpha Particles
256. Proton Stopping Power and Energy Straggling of Protons
257. The Elastic Scattering of Protons by Lithium
258. Range-Energy Relations of 10-to 250-kev Protons and Helium Ions in Various Gases
259. The Stopping Cross Section of Gases for Protons, 30–600 Kev
260. The Stopping Powers of Various Elements for Protons of Energies from 400 to 1050 Kev
261. 4 below 120 Kev
262. Nuclear Radii from Inelastic Cross-Section Measurements
263. Range-Energy Relation in Nuclear Track Emulsions for Protons of Energy up to 21 Mev
264. Range and Specific Ionization for High-Energy Protons in Nuclear Emulsions
265. Range of 208 ± 4 Mev Protons in G5 Nuclear Emulsion
266. Energy Loss of Protons Passing Through Hydrogen
267. Ranges of Protons in Medium and Heavy Elements
268. Stopping Cross Sections of Metals for Protons of Energies from 400 to 1000 Kev
269. Energy Loss by 8.86-Mev Deuterons and 4.43-Mev Protons
270. Range-Energy Relation and Masses of the New Particles
271. Relative Stopping Power of Various Metals for 20 Mev Protons
272. Range-Energy Measurements in Emulsion
273. Penetration of Electrons and Ions in Aluminum
274. Stopping Cross Sections of Solids for Protons, 50 – 600 Kev
275. The Range in G-5 Nuclear Emulsion for Protons with 87, 118, and 146 Mev
276. Statistical Fluctuations in Energy Losses of 37-Mev Protons
277. Stopping Power of Some Metallic Elements for 19.8-Mev Protons
278. Range of 6- to 18-Mev Protons in Be, Al, Cu, Ag, and Au
279. Passage of Various Gas Ions Through A Thin Silver Foil
280. The Range-Energy Relation in Emulsion. Part I - Range Measurements
281. Coulomb Excitation of Medium-Weight Even-Even Nuclei
282. Stopping Power and Valence States
283. Energy Loss of Fast Charged Particles in LiH
284. Experimental Range of Protons in Al
285. Multiple Scattering Correction for Proton Ranges and the Evaluation of the L-Shell Correction and I Value for Aluminum
286. Range-Energy Relation for 660-Mev Protons
287. + Ions in Plastics
288. Range-Energy Measurements for 2- to 5-Mev Protons in Ni and Ag
289. 4 in Titanium Tritide Bombarded with Deutrons
290. The Stopping Powers of Atoms
291. Differential Energy Loss and Ranges of Ne, N, and He Ions
292. Ratio of Atomic Stopping Power of Graphite and Diamond for 1.1-Mev Protons
293. High-Velocity Range and Energy-Loss Measurements in Al Cu Pb U and Emulsion
294. Energy Loss and Straggling of Protons and Deuterons
295. 4 in the Energy Range 4 < E < 30 Kev
296. 10
297. Energy Losses of Light Ions in Thin Metallic Foils
298. Partial Ionic Stopping Power and the Energy Expected in Electron Capture and Loss Collisions of Protons
299. Ranges and Stopping Cross Sections of Low-Energy Tritons
300. Stopping Cross Sections of some Hydrocarbon Gases for 40-250 Kev Protons and Helium Ions
301. Relative Stopping Power of Some Metallic Elements for 28.7 Mev Protons
302. Investigations on Lithium-Drift Solid-State Detectors for High-Energy Particle Detection
303. Ranges of 5- to 27-keV Deuterons in Aluminum Copper and Gold
304. Ratio of the Effective Charge of He Beams Traversing Gaseous and Metallic Cadmium
305. Zur Energiebestimmung von Protonen aus Reichweite messungen
306. Anisotropic Energy Loss of Light Particles of Mev Energies in Thin Silicon Single Crystals
307. A Critical Review of Experimental Stopping Power and Range Data
308. The Role of Particle Channeling in Detector Systems
309. Problems with Semiconductor Detectors Due to Anomalous Energy Loss
310. The Energy Loss by Charged Particles in Silicon as a Function of Track Orientation
311. Anomalous Energy Losses of Protons Channeled in Sincle Crystal Germanium
312. Axial and Planar Effects in the Energy Loss of Protons in Silicon Single Crystals
313. +, 65–180 keV
314. The Channeling of 2.5-MeV Protons in Cu and Some Effects of Temperature and Radiation Damage
315. Some Low-Energy Atomic Stopping Cross Sections
316. Some Low-Energy Atomic Stopping Cross Sections
317. Stopping Cross Sections of Carbon and Hydrocarbon Solids for Low-Energy Protons and Helium Ions
318. Stopping Cross Sections of Carbon and Hydrocarbon Solids for Low-Energy Protons and Helium Ions
319. Use of The D-D Reaction to Investigate Penetration of 20 keV Deuterons in Gold and Aluminum
320. A New Technique for Measuring Range of Low Energy Charged Particles in Conducting Solids
321. Low Energy Electron and Proton Transmission in Aluminum and Silver
322. Range-Difference Measurements for Protons in C, Al, Sapphire, Si, Quartz, Ge, and Ag
323. Stopping Powers and Straggling in Neon, Argon, and Krypton
324. Fluctuations of Energy Loss by Heavy Charged Particles in Silicon Detectors: Preliminary Measurements
325. Cyclotron Tests to Determine the Response of Solid State Detectors to Protons of Energies 50 to 160 Mev for Use in a Proton Spectrometer
326. Beam Energy Measurements at the Oak Ridge Isochronous Cyclotron
327. Stopping Cross Sections in Boron of Low Atomic Number Atoms with Energies from 15 to 140 keV
328. Energieverlustmessungen in Anthrazen, Terphenyland Plastikszintillator fur Protonen and Deuteronen im Energiebereich von 100 bis 900 keV
329. Theoretical Thick Target Yields for the D-D, D-T, and T-D Nuclear Reactions Using the Metal Occluders Ti and Er and Energies up to 300 keV
330. Stopping Power of Aluminum for 5–12 MeV Protons and Deuterons
331. Fluctuations of Energy Loss in Semiconductor Detectors
332. Fluctuations of Energy Loss by Heavy Charged Particles in Matter
333. Fluctuations of Energy Loss in Semiconductor Detectors
334. 1 ≤ 20
335. 1 ≤ 39
336. The Observation of Proton Channeling in Thin Mica
337. Channeling of 375-kev Protons Through Silicon
338. Stopping Powers and Straggling in the Rare Gases
339. Radiative Corrections of Atoms and Molecules
340. The Energy Straggling of l-Mev Protons in Gases
341. Range-Energy Relation for Low Energy Protons in Si and Ge
342. The Ranges of 5–80 keV Deuterium Ions in Gold and Aluminum
343. High-Energy Proton Depth-Dose Patterns
344. The Range of 5–50 keV Heavy Ions in Various Gases
345. Penetration of Hydrogen Ions into Copper
346. Measurement of Atomic-Stopping Cross Sections at Low Energies
347. Ionization Energy Loss of Protons, Deuterons, and Alpha Particles
348. + Ions in the Energy Range 20 to 95 keV.
349. Ionization in Thin Tissue-like Gas Layers by Monoenergetic Protons
350. Stopping Power of Be, Al, Cu, Ag, Pt, and Au for 5–12 MeV Protons and Deuterons
351. Channeling Effects in the Energy Loss of 3–11-Mev Protons in Silicon and Germanium Single Crystals
352. 2 Pour des Protons D'Energie Comprise Entre 0.4 et 6 MeV
353. Stopping Power and the Additivity Rule for Some Fluorine Compounds
354. New Evaluation of Mean Excitation Energies for Use in Radiation Dosimetry
355. New Evaluation of Mean Excitation Energies for Use in Radiation Dosimetry
356. Differential Cross Sections for the Charged Particles Produceed by 60-MeV Protons on Carbon, Iron, and Bismuth
357. Energy-Loss Straggling of Protons in Silicon
358. Energy Loss of Low Energy Protons and Deuterons in Evaporated Metallic Films
359. Stopping Power of the Elements Z = 20 Through Z = 30 for 5–12 MeV Protons and Deuterons
360. Energy Loss by Low-Energy Protons in Gold
361. Deceleration of Slow Hydrogen and Deuterium Ions in a Thin Silver Foil
362. Stopping Power of Al, Zn, and In for 0.6–2.4 MeV Protons
363. [111] Proton Channeling in Very Thin Gold Crystals
364. Low-Energy Electronic Stopping Cross Sections in Nitrogen and Argon
365. Range of Ar, Kr, and Xe Ions in Solids in the 500-keV to 2-MeV
366. Use of the (p,n) Reaction to Measure Proton Atomic Stopping Powers in Ag, Cd, In, and Sn
367. Mean Excitation Potential of Light Compounds
368. Range and Ionization Losses of Proton Energy in Different Materials
369. Anomalous Energy Losses of 1.5-Mev Protons Channeled in Silicon Single Crystals
370. Energy Loss of Alpha Particles, Protons, and Electrons in Matter
371. Energy Loss and Straggling in Silicon by High-Energy Electrons, Positive Pions, and Protons
372. A Heavy-Ion Energy Loss Spectrometer
373. Energy and Angular Distributions of Protons Transmitted by Germanium and Silicon Single Crystals Along {110} and [110] Channels in the Crystal Lattices
374. Channeling of High Energy Protons in Ionic Syngle Crystals
375. + Ions and Depth Distribution of Interstitial Hydrogen in a Nickel Film
376. The Stopping Power of ProtonsChannelled Through CsI Crystals
377. Slowing Down of 0.5–30 keV Protons in Some Materials
378. Pouvoir D'Arret du Germanium Pour Des Protons D'Energie Comprise Entre 0.35 et 5.5 MeV
379. 2=30
380. Mean Excitation Energy for Stopping Power of Molecular Hydrogen
381. Stopping Power of Zr, Gd, and Ta for 5–12 MeV Protons and Deuterons. Further Evidence of an Oscillatory Behavior of the Excitation Potential
382. 4He Particles in Cr, Mn, Co, Ni, and Cu at Energies near 100 keV
383. Determination of Channeling Probability from Transmitted Particle Energy Spectra
384. Energy Loss of Protons Channelling Through Very Thin Gold
385. Mean Excitation Energies for Chemical Elements
386. Energy Loss of Protons in Gases
387. Energy-Straggling Measurements of Heavy Charged Particles in Thick Absorbers
388. Stopping Power of Havar for 2.5 to 7.0 MeV Deuterons
389. Energy-Loss Spectra and Collision Cross Sections for Impact of 20–120 keV Positive Ions on Molecular Nitrogen
390. Energy Loss of Heavy Charged Particles
391. Energy Loss and Energy Straggling of Well Channelled Hydrogen Helium and Lithium Ions in Gold
392. External Proton Beam Characteristics of the NASA Space Radiation Effects Laboratory Synchrocyclotron
393. Range-Energy Relation in Helium
394. Energy Loss of Protons in Thin Films of Carbon Aluminum and Silver
395. Analysis of Energy Loss Data for 0.2–0.5 MeV/amu p, alphas, and N in Se
396. Energy Loss and Straggling of 0.6–2.0 MeV Protons in Fe, Co, and Sb
397. 2, and Air (0.2–2.0 MeV)
398. The LET of 150-MeV Protons and 70-MeV Negative π Mesons Near the End of the Particle Tracks in Polyethylene
399. Inelastic Scattering of Electrons and Protons by the Elements He to Na
400. Stopping Power and Energy Straggling for Swift Protons
401. Electronic Stopping Cross Sections of Deuterons in Titanium
402. Energy Spectra of keV Backscattered Protons as a Probe for Surface Region Studies
403. Calculation of Mean Excitation Energy for All Elements
404. 3 Crystals at Room Temperature
405. Penetration of Low-Energy Protons Through Thin Films
406. Stopping Power of Some Pure Metals for 25–250 keV Hydrogen Ions
407. Random Stopping Power for Protons in Silicon
408. Stopping Power of Ti, Mo, Ta, and W for 0.5–1.75 MeV Protons
409. The Determination of Energy Losses From the Spectrum of Particles Scattered by a Thick Targets
410. Rutherford Backscattering as a Tool to Determine Electronic Stopping Powers in Solids
411. Stopping Power of Al Cu Ag Au Pb and U for 5–18 MeV Protons and Deuterons
412. Mean Excitation Energies of Several Compounds and Mixtures
413. Energy Loss of Charged Particles in Crystals
414. Damage Effects in Silicon Surface Barrier Detectors with 0.5–2 MeV Protons
415. Determination of the Average Excitation Potential of the Copper Ion from the Ionization Range of 660-MeV Protons
416. Stopping Powers of Al, Ti, Fe, Cu, Mb, Ag, Sn, Ta, and Au for 7.2 MeV Protons
417. Energy Loss of Low Energy Protons Channeling in Silicon Crystals
418. 2S(0.3–2.5 MeV)
419. Das Elektronische Bremsvermogen von Sticstoff and Sauerstoff fur Niederenergetische Protonen
420. Stopping Powers of Copper, Silver, and Gold for Protons and Helium Ions of Low Energy
421. Stopping Power of Havar for 0.8–3.9 MeV Deuterons and 2.9–6.0 MeV Protons
422. A Study of the Energy Loss of 0.36–4.5 MeV Protons in Thin Carbon Foils
423. Stopping Powers of Several Composite Materials for 2.4 and 3.5 MeV Deuterons and 5.5 MeV Alpha Particles
424. Rutherford Backscattering Analysis with Very High Depth Resolution Using an Electrostatic Analysing System
425. Depth Profiling of Deuterons in Metals at Large Implantation Depths Using the Nuclear Reaction Technique
426. Range Parameters of Heavy Ions in Silicon and Germanium with Reduced Energies from 0.001 – 10
427. Measurement of Energy Distribution of Low Energy Light Ions Through Copper Film and its Statistical Analysis
428. Analysis of Lead Azide Thin Films by Rutherford Backscattering
429. 4He Ions in Erbium and Erbium Oxide: A Test of Bragg's Rule
430. 2S (0.3–2.5 MeV)
431. Comparison of Measured and Calculated Damage Distributions for Light keV Ion Bombardment of Solid Surfaces
432. Nuclear and Electronic Stopping Powers of Low Energy Ions with Z < 10 in Silicon
433. Energy Loss of Channeled Protons in Al Single Crystal
434. Energy Loss of Atomic and Molecular Ion Beams in Thin Foils
435. Energy Loss Straggling of Protons in Thick Absorbers
436. Channeling und Blocking-Effekte bei Transmission von Deuteronen der energie 16 bis 275 MeV durch Lithiumfluoride-Einkristalle
437. The Trapping of Hydrogen Ions in Zirconium for Ion Energies Between 0.3 and 6 keV
438. Hydrogen Implanation in Silicon Between 1.5 and 60 keV
439. New Precision Technique for Measuring the Concentration Versus Depth of Hydrogen in Solids
440. Measurements of Distributions of Energy Loss for 51, 102, and 153 keV Protons in Nine Hydrocarbon Gases
441. Measurements of the Additivity of Stopping Cross-Sections for 50–150 keV Protons in Nine Hydrocarbon Gases
442. 6Li by Deuteron Induced Nuclear Reactions
443. Range Profiles of 100–400 keV Deuterons in Nickel Experiment and Computer Simulation
444. Secondary Electron Emission from 0.5–2.5 MeV Protons
445. 1 Effects and Effects of Screening by Bound K Electrons on the Electronic Stopping of Channeled Ions
446. Detection Efficiency and Range Measurements of Alphas and Protons in Cellulose Nitrate
447. Inelastic Stopping of Medium Energy Light Ions in Silicon
448. 4 proportional deviations from the Bethe formula
449. Determination of Random and Aligned Stopping Powers for 80–300 KEV Protons in Silicon by Backscattering Measurements
450. Experimental Remarks on the Range of 20 KeV Protons in Vanadium
451. The Use of Hydrogen and Deuterium Implantation to Investigate Some Aspects of Defect-Impurity Interactions in Metals
452. Profiling Hydrogen in Materials Using Ion Beams
453. Hydrogen Ion Implantation Profiles as Determined by SIMS
454. An Improved Method for Measuring Relative Stopping Powers of Light Ions in Solids
455. Energy Loss of Light 300 KeV Ions in Thin Metal Foils
456. A New Method for the Determination of Low-Energy Stopping Powers of Hydrogen and Helium
457. Stopping Cross Sections for Protons of 350–650 KeV in Au by a New Method
458. Depth Profile Analysis of Proton Damage by Channeling
459. Channeled and Random Proton Stopping Power in the 30–1000 KeV Energy Range
460. The Response of NE-228, NE-224, and NE-102 Scintillators to Protons from 2.43 to 19.55 MeV
461. Energy Loss and Straggling of Protons and Helium Ions Traversing some Thin Solid Foils
462. Stopping Power of Polystyrene for 2.2 to 5.9 MeV Protons
463. Ranges of 10–30 keV Deuterons Implanted into Solids
464. + Molecules in Solids: II
465. Depth Profiles of Implanted H and He in Metal Mo Determined with Backscattered Protons
466. Application of Ion Induced X-Ray Emission for the Measurement of Stopping Powers
467. Stopping Powers of Some Metals for 0.3–1.5 Mev Protons
468. On the Determination of Energy Losses by Charged Particles from the Backscattered Energy Spectra
469. Channeling of Fast Protons, Deuterons, and Alpha Particles
470. Energy Loss, Angular Distributions and Charge Fractions of Low Energy Hydrogen Transmitted through Thin Carbon Foils
471. Sur les Potentiels Moyens d'Excitation et les Relations Energie-Parcours dan les Elements Legers
472. Mean Excitation Potential of Light Compounds
473. Dipole Spectrum of Water Vapor and Its Relation to the Energy Loss of Fast-Charged Particles
474. Systematics of Moments of Dipole Oscillator-Strength Distributions for Atoms of the First and Second Row
475. 2O Using Dipole Oscillator Strength Distributions
476. Addendum Systematics of Moments of Dipole Oscillator-Strength Distributions for Atoms in the First and Second Row
477. Mean Excitation Energies of Si, Ni, Ge, Y, Ag, and Au Based on Alpha Particle Stopping Power Measurements
478. Mean Excitation Energies of Al, Ni, Se, Ag, and Au Extracted from Alpha Particle Stopping Power Measurements
479. The Stopping Power of Liquid Water
480. Stopping Power of Water Films
481. 210Po Alpha-Particles
482. The Stopping Power of Hydrogen and Hydrocarbon Vapours for Alpha Particles over the Energy Range 1 to 8 MeV
483. Bragg-Rule Applicability to Stopping Cross Sections of Gases for Alpha Particles of Energy 0.3 – 2.0 MeV
484. Stopping Cross Sections of Gases for Alpha Particles from 0.3 to 2 MeV
485. Stopping Cross Sections for 0.3 to 1.7-MeV Helium Ions in Silicon and Silicon Dioxide
486. The Influence of Molecular Binding on the Stopping Power of Alpha Particles in Hydrocarbons
487. Measurement of Molecular Stopping Cross Sections of Halogen-Carbon Compounds and Calculation of Atomic Stopping Cross Sections of Halogens
488. Validity of Bragg's Rule in Sputtered Superconducting NbN and NbC Films of Various Compositions
489. The Stopping Power of Organic Liquids for Alpha Particles Over the Energy Range 1–8 MeV
490. + Ions
491. + in Solid Oxides
492. Energy Loss of Alpha Particles in Gaseous CHF Compounds
493. 4He Ions in Solid Compounds
494. Stopping Powers of Some Low Atomic Number Materials for Alpha Particles of Energies up to 6 MeV
495. The Stopping Power of Organic Compounds for Alpha Particles in the Range 1.5–8 MeV
496. 4He Ions in Oxides
497. Energy Loss of Charged Particles to Molecular Gas Targets
498. Stopping Powers from the Inverted Doppler Shift Attenuation Method Z-Oscillations; Bragg's Rule or Chemical Effects; Solid and Liquid State Effects
499. 2O ice and vapor for 0.3–2.0 MeV Alpha Particles
500. Stopping Power Data for Neutron and Pion Dosimetry with Ionization Chambers
501. Energy Loss of He Ions in Solidified Gases
502. Chemical Influences on the Stopping Power
503. Measurement of Molecular Stopping Cross Sections of Aldehydes and Ketones and Calculation of the Atomic Stopping Cross Section of Oxygen in Double-Bonded and Three-Membered Ring-Structure CHO Compounds
504. Dependence of the Stopping Power of Charged Particles on the Physical State of Organic Dielectric Compounds