(Ebook) Fast Software Encryption 1st Edition by Jean Philippe Aumasson, Itai Dinur, Willi Meier, Adi Shamir, Orr Dunkelman ISBN 9783642033162 3642033164

(Ebook) Fast Software Encryption 1st Edition by Jean Philippe Aumasson, Itai Dinur, Willi Meier, Adi Shamir, Orr Dunkelman ISBN 9783642033162 3642033164

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ISBN 10: 3642033164
ISBN 13: 9783642033162
Author: Jean Philippe Aumasson, Itai Dinur, Willi Meier, Adi Shamir, Orr Dunkelman

(Ebook) Fast Software Encryption 1st Edition Table of contents:

1. Stream Ciphers
2. Cube Testers and Key Recovery Attacks on Reduced-Round MD6 and Trivium
3. Introduction
4. Cube Attacks
5. MD6
6. Trivium
7. The Contributions of This Paper
8. Key Recovery on MD6
9. Method
10. Results
11. CubeTesters
12. Definitions
13. Examples
14. Building on Property Testers
15. Examples of Testable Properties
16. CubeTesters on MD6
17. Attack A
18. Attack B
19. Results
20. Cube Testers on Trivium
21. Setup
22. Results
23. Conclusions
24. References
25. Details on MD6
26. An Efficient State Recovery Attack on X-FCSR-256
27. Introduction
28. Background
29. Recalling the FCSR Automaton
30. Brief Summary of X-FCSR-256 Prerequisites
31. Describing the Attack
32. Idea of Attack
33. LFSRization of FCSRs
34. Combining Output Blocks
35. Analytical Unwinding
36. Brute-Forcing the State
37. Improving the Attack
38. Precomputation
39. Lowering the Required Keystream
40. Concluding Remarks
41. References
42. Key Collisions of the RC4 Stream Cipher
43. Introduction
44. The RC4 Stream Cipher
45. An Example: How It Works
46. General Collision Sequence
47. Near-Collision Sequence
48. Faster Collision Search
49. Concluding Remarks
50. References
51. Invited Talk
52. Intel’s New AES Instructions for Enhanced Performance and Security
53. Introduction
54. Intel’s AES Architecture
55. Preliminaries and Notations
56. The Six AES Instructions
57. Basic Usage of the AES Instructions
58. Some Design Considerations That Led to the Selection of the AES Architecture
59. Design for Software Flexibility
60. Design for Performance
61. Design for Performance Scalability
62. Design for Security
63. Performance Optimizations for Parallel Modes of Operation
64. Parallelizing CBC Encryption for Performance
65. More on Software Flexibility and Surprising Usage Models
66. Supporting RIJNDAEL with Block Size Larger Than 128 Bits
67. Isolating the AES Transformations
68. Using the AES Instructions for RAID-6
69. Conclusion
70. References
71. Code Sequences for AES-192 and AES-256 Key Expansion
72. Theory of Hash Functions
73. Blockcipher-Based Hashing Revisited
74. Introduction
75. Background
76. Compression Functions and Hash Functions
77. Classical Rate-1 Blockcipher Based Compression Functions
78. Type-I: Collision Resistant Compression Functions
79. Type-II: Collision Resistance in the Iteration
80. Implications to the PGV Schemes
81. Generalized Single Call Compression Functions
82. Chopping: Compression in the Postprocessing
83. Overloading: Compression in the Preprocessing
84. Supercharging: Expansion in the Postprocessing
85. References
86. On the Security of TANDEM-DM
87. Introduction
88. Preliminaries
89. Iterated DBL Hash Function Based on Block Ciphers
90. The Tandem-DM Compression Function
91. Related Work
92. Collision Resistance
93. Defining Security – Collision Resistance of a Compression Function (Pseudo Collisions)
94. Security Results
95. Proof of Theorem 1
96. Preimage Resistance
97. Preimage Security
98. Discussion and Conclusion
99. References
100. Proof of Lemma 2
101. Security of the FSE’06 Proposal by Hirose for a DBL Compression Function
102. Compression Function
103. Collision Resistance of the Compression Function
104. Indifferentiability of Permutation-Based Compression Functions and Tree-Based Modes of Operation, wi
105. Introduction
106. Indifferentiability
107. The MD6 Hash Function: High-Level View
108. Notation
109. Indifferentiability from Random Oracle of MD6 Compression Function
110. Indifferentiability of Tree-Based Modes of Operation
111. Required Properties of Mode of Operation
112. The Simulator
113. Games
114. Indifferentiability Theorem
115. Conclusion
116. References
117. Hash Functions Analysis I
118. Cryptanalysis of RadioGat'{u}n
119. Introduction
120. Description of RadioGat'{u}n
121. Symmetric Differences and Control Words
122. Symmetric Differences
123. Control Words
124. An Improved Backtracking Search
125. Entropy
126. Differential Path Search Algorithm
127. Complexity of the Path Search Phase
128. The Collision Attack
129. Description
130. Computation of the Cost
131. Breaking the Birthday Bound
132. Conclusion
133. References
134. Appendix A: Collision for RadioGat'{u}n[2]
135. Preimage Attacks on Reduced Tiger and SHA-2
136. Introduction
137. Preliminaries
138. Description of Tiger
139. Description of SHA-256
140. Meet-in-the-Middle Approach for Preimage Attack
141. Preimage Attack on Reduced-Round Tiger
142. Properties of Tiger
143. How to Obtain Two Independent Transforms in the $KSF^{−1}$
144. Applying Meet-in-the-Middle Attack to Reduced-Round Tiger
145. (Second) Preimage Attack on 16-Round Tiger Compression Function
146. One-Block (Second) Preimage Attack on 16-Round Tiger
147. Preimage Attack on Reduced-Round SHA-2
148. Properties of 24-Step SHA-2
149. (Second) Preimage Attack on 24-Step SHA-256 Compression Function
150. One-Block (Second) Preimage Attack on 24-Step SHA-2 Hash Function
151. Conclusion
152. References
153. Appendix A
154. Cryptanalysis of the LAKE Hash Family
155. Introduction
156. Description of LAKE
157. Properties and Observations
158. $(H, t)$-Type Attack
159. Solving Equation Systems
160. Complexity of the Attack
161. $(H, S)$-Type Attack
162. Finding High-Level Differentials
163. Solving the ProcessMessage
164. Near Collisions
165. Extending the Attack to Full Collisions
166. Reducing the Complexity
167. $(H)$-Type Attack
168. Conclusions
169. References
170. Block Ciphers Analysis
171. New Cryptanalysis of Block Ciphers with Low Algebraic Degree
172. Introduction
173. Feistel Structure and Basic Attacks
174. Feistel Structure
175. Interpolation Attack on Block Ciphers
176. Integral Cryptanalysis
177. Mathematical Foundation
178. Notations
179. Algebraic Analysis of Outputs of Feistel Cipher
180. Improved Interpolation Attack on Feistel Ciphers
181. Basic Properties of the Output of A Feistel Cipher
182. Improved Attack
183. New Integral Cryptanalysis of Block Ciphers
184. Results of Attack on ${mathcal PURE}$
185. Improved Attacks on ${mathcal PURE}$
186. Experimental Results
187. Conclusion
188. References
189. Algebraic Techniques in Differential Cryptanalysis
190. Introduction
191. Overview of the New Attack Technique
192. Differential Cryptanalysis
193. Algebraic Cryptanalysis
194. Algebraic Techniques in Differential Cryptanalysis
195. The Block Cipher PRESENT
196. Differential Cryptanalysis of 16 Rounds of PRESENT
197. Experimental Results
198. PRESENT-80-16
199. PRESENT-128-17
200. PRESENT-128-18
201. PRESENT-128-19
202. Discussion of the Attack
203. Conclusion
204. References
205. Multidimensional Extension of Matsui’s Algorithm 2
206. Introduction
207. Boolean Function and Probability Distribution
208. Advantage in Key Ranking
209. Algorithm 2
210. Multidimensional Linear Approximation
211. Key Ranking in One-Dimensional Alg. 2
212. Different Scenarios in Multiple Dimensions
213. The ${lambda^2}$-Method
214. Algorithm 2 with ${lambda^2}$
215. Algorithm 1 with ${lambda^2}$
216. Combined Method and Discussion
217. The LLR-Method
218. Algorithms and Complexities
219. Experiments
220. Conclusions
221. References
222. Hash Functions Analysis II
223. Meet-in-the-Middle Attacks on SHA-3 Candidates
224. Introduction
225. Meet-in-the-Middle Attacks on Hash Functions
226. Eliminating the Memory Requirement
227. Reduced State Principle
228. Boole
229. Preimage Attack on Boole-384 and Boole-512
230. Complexity of the Attack
231. Edon-R
232. Preimage Attack on Edon-R-$n$
233. Complexity of the Attack
234. EnRUPT
235. Preimage Attack on "{ı}rRUPT-512
236. Complexity of the Attack
237. Sarmal
238. Preimage Attack on Sarmal-512
239. Complexity of the Attack
240. Conclusions
241. References
242. Practical Collisions for EnRUPT
243. Introduction
244. Description of EnRUPT
245. The EnRUPT Hash Functions
246. The EnRUPT Round Function
247. Basic Attack Strategy
248. LinearisingEnRUPT
249. The Collision Search
250. An Observation on EnRUPT
251. Accelerating the Collision Search
252. Finding Good Differential Characteristics
253. Coding Theory
254. Low Weight Codewords
255. Estimating the Attack Complexity
256. Results and Discussion
257. Conclusion
258. References
259. The Rebound Attack: Cryptanalysis of Reduced Whirlpool and {sf Grøstl}
260. Introduction
261. Related Work
262. Outline of the Paper
263. Description of the Hash Functions
264. The Whirlpool Hash Function
265. The {sf Grøstl} Hash Function
266. Rebound Attack on Whirlpool
267. Attack Overview
268. Collision Attack for 4.5 Rounds
269. Semi-Free-Start Collision Attack for 5.5 Rounds
270. Semi-Free-Start Near-Collision Attack for 7.5 Rounds
271. Rebound Attack on {sf Grøstl}
272. Semi-Free-Start Collision for 5 Rounds
273. Semi-Free-Start Collision for 6 Rounds
274. Conclusion and Open Problems
275. References
276. Block Ciphers
277. Revisiting the IDEA Philosophy
278. Introduction
279. The IDEA Block Cipher
280. Overview of the Cipher
281. Cryptanalysis of IDEA
282. A Wordslice IDEA Implementation
283. The WIDEA Block Cipher Family
284. Design Rationale
285. Preliminary Security Analysis
286. WIDEA-8 Implementation Results
287. References
288. Cryptanalysis of the ISDB Scrambling Algorithm (MULTI2)
289. Introduction
290. Description of MULTI2
291. Equivalent Keys
292. Guess-and-Determine Attack
293. Linear Attacks
294. Related-Key Slide Attack
295. Conclusions
296. References
297. Beyond-Birthday-Bound Security Based on Tweakable Block Cipher
298. Introduction
299. Preliminaries
300. Basic Notations
301. Security Notion
302. Maurer’s Methodology
303. Previous Constructions of DBLC
304. Building a DBLC with Beyond-Birthday-Bound Security
305. Extending Naor-Reingold Approach
306. Security Proof of ENR
307. Proof of Theorem
308. PRP and PRF Versions of ENR
309. A Simple Construction of Tweakable Block Cipher with Beyond-Birthday-Bound Security
310. Conclusion
311. References
312. Theory of Symmetric Key
313. Enhanced Target Collision Resistant Hash Functions Revisited
314. Introduction
315. Preliminaries
316. Notations
317. Two Settings for Hash Functions
318. Definition of Security Notions: CR, TCR and eTCR
319. eTCR Property vs. CR Property
320. CR $nRightarrow$ eTCR
321. eTCR $nRightarrow$ CR
322. The Case for Randomized Hashing
323. Domain Extension and eTCR Property Preservation
324. Merkle-Damg.{a}rd Does Not Preserve eTCR
325. Randomized Hashing Does Not Preserve eTCR
326. Shoup, Enveloped Shoup and XLH Do Not Preserve eTCR
327. LH Transform and Its Nested Variant
328. Conclusion
329. References
330. Message Authentication Codes
331. MAC Reforgeability
332. Introduction
333. Preliminaries
334. A Fast, Stateful MAC with Short Tags
335. Conclusions
336. References
337. New Distinguishing Attack on MAC Using Secret-Prefix Method
338. Introduction
339. Backgrounds and Definitions
340. Notations
341. MAC Using Secret Prefix Method
342. Brief Description of SHA-1
343. New Distinguisher on LPMAC Structure
344. Recent Attack on HMAC/NMAC-MD5 and MD5-MAC
345. Description of the New Distinguisher
346. New Distinguishing Attack on LPMAC Based on 61-Step SHA-1
347. Conclusions
348. References
349. Fast and Secure CBC-Type MAC Algorithms
350. Introduction
351. Our Proposals GCBC1 and GCBC2
352. Preliminaries
353. Definitions and Notations
354. Generalized {sf CBC-MAC} Class
355. Building Blocks
356. Definition of a Generalized {sf CBC-MAC}
357. Known {sf CBC}-Type MACs Are Generalized {sf CBC-MAC}
358. Security Analysis
359. Decorrelation Technique
360. Security Analysis of Generalized CBC Algorithm
361. Two New Efficient Generalized {sf CBC-MAC}: {sf GCBC1} and {sf GCBC2}
362. {sf GCBC1}
363. {sf GCBC2}
364. Conclusion
365. References
366. HBS: A Single-Key Mode of Operation for Deterministic Authenticated Encryption
367. Introduction
368. Preliminaries
369. SpecificationofHBS
370. A Vector-Input Universal Hash Function $F$
371. Vector-Input �-Almost XOR Universal Hash Function
372. HBS: Hash Block Stealing
373. Security Analysis of HBS
374. Security Definition
375. Security Theorem
376. Rationale of $f_L$ and $F^{(ell)}_L$ and Comparison with SIV
377. Further Discussion: Beyond the Birthday Bound
378. References
379. Author Index

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Tags: Jean Philippe Aumasson, Itai Dinur, Willi Meier, Adi Shamir, Orr Dunkelman, Fast Software Encryption