Home Mathematics § 284 Nonabelian p-groups, p > 2, of exponent > p2 all of whose minimal nonabelian subgroups are of order p3
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§ 284 Nonabelian p-groups, p > 2, of exponent > p2 all of whose minimal nonabelian subgroups are of order p3

  • Yakov G. Berkovich and Zvonimir Janko
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Volume 6
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© 2018 Walter de Gruyter GmbH, Berlin/Munich/Boston

© 2018 Walter de Gruyter GmbH, Berlin/Munich/Boston

Chapters in this book

  1. Frontmatter I
  2. Contents V
  3. List of definitions and notations XIII
  4. Preface XIX
  5. § 257 Nonabelian p-groups with exactly one minimal nonabelian subgroup of exponent > p 1
  6. § 258 2-groups with some prescribed minimal nonabelian subgroups 6
  7. § 259 Nonabelian p-groups, p > 2, all of whose minimal nonabelian subgroups are isomorphic to Mp3 13
  8. § 260 p-groups with many modular subgroups Mpn 15
  9. § 261 Nonabelian p-groups of exponent > p with a small number of maximal abelian subgroups of exponent > p 18
  10. § 262 Nonabelian p-groups all of whose subgroups are powerful 24
  11. § 263 Nonabelian 2-groups G with CG(x) ≤ H for all H ∈ Γ1 and x ∈ H − Z(G) 25
  12. § 264 Nonabelian 2-groups of exponent ≥ 16 all of whose minimal nonabelian subgroups, except one, have order 8 26
  13. § 265 p-groups all of whose regular subgroups are either absolutely regular or of exponent p 29
  14. § 266 Nonabelian p-groups in which any two distinct minimal nonabelian subgroups with a nontrivial intersection are non-isomorphic 33
  15. § 267 Thompson’s A × B lemma 35
  16. § 268 On automorphisms of some p-groups 36
  17. § 269 On critical subgroups of p-groups 47
  18. § 270 p-groups all of whose Ak-subgroups for a fixed k > 1 are metacyclic 50
  19. § 271 Two theorems of Blackburn 55
  20. § 272 Nonabelian p-groups all of whose maximal abelian subgroups, except one, are either cyclic or elementary abelian 57
  21. § 273 Nonabelian p-groups all of whose noncyclic maximal abelian subgroups are elementary abelian 58
  22. § 274 Non-Dedekindian p-groups in which any two nonnormal subgroups normalize each other 59
  23. § 275 Nonabelian p-groups with exactly p normal closures of minimal nonabelian subgroups 61
  24. § 276 2-groups all of whose maximal subgroups, except one, are Dedekindian 63
  25. § 277 p-groups with exactly two conjugate classes of nonnormal maximal cyclic subgroups 67
  26. § 278 Nonmetacyclic p-groups all of whose maximal metacyclic subgroups have index p 68
  27. § 279 Subgroup characterization of some p-groups of maximal class and close to them 70
  28. § 280 Nonabelian p-groups all of whose maximal subgroups, except one, are minimal nonmetacyclic 73
  29. § 281 Nonabelian p-groups in which any two distinct minimal nonabelian subgroups have a cyclic intersection 80
  30. § 282 p-groups with large normal closures of nonnormal subgroups 83
  31. § 283 Nonabelian p-groups with many cyclic centralizers 86
  32. § 284 Nonabelian p-groups, p > 2, of exponent > p2 all of whose minimal nonabelian subgroups are of order p3 87
  33. § 285 A generalization of Lemma 57.1 88
  34. § 286 Groups ofexponent p with many normal subgroups 90
  35. § 287 p-groups in which the intersection of any two nonincident subgroups is normal 92
  36. § 288 Nonabelian p-groups in which for every minimal nonabelian M < G and x ∈ G − M, we have CM(x) = Z(M) 97
  37. § 289 Non-Dedekindian p-groups all of whose maximal nonnormal subgroups are conjugate 98
  38. § 290 Non-Dedekindian p-groups G with a noncyclic proper subgroup H such that each subgroup which is nonincident with H is normal in G 99
  39. § 291 Nonabelian p-groups which are generated by a fixed maximal cyclic subgroup and any minimal nonabelian subgroup 100
  40. § 292 Nonabelian p-groups generated by any two non-conjugate minimal nonabelian subgroups 101
  41. § 293 Exercises 102
  42. § 294 p-groups, p > 2, whose Frattini subgroup is nonabelian metacyclic 174
  43. § 295 Any irregular p-group contains a non-isolated maximal regular subgroup 176
  44. § 296 Non-Dedekindian p-groups all of whose nonnormal maximal cyclic subgroups are C-equivalent 178
  45. § 298 Non-Dedekindian p-groups all of whose subgroups of order ≤ ps (s ≥ 1 fixed) are normal 182
  46. § 299 On p’-automorphisms of p-groups 184
  47. § 300 On p-groups all of whose maximal subgroups of exponent p are normal and have order pp 185
  48. § 301 p-groups of exponent > p containing < p maximal abelian subgroups of exponent > p 188
  49. § 302 Alternate proof of Theorem 109.1 190
  50. § 303 Nonabelian p-groups of order > p4 all of whose subgroups of order p4 are isomorphic 192
  51. § 304 Non-Dedekindian p-groups in which each nonnormal subgroup has a cyclic complement in its normalizer 196
  52. § 305 Nonabelian p-groups G all of whose minimal nonabelian subgroups M satisfy Z(M) ≤ Z(G) 198
  53. § 306 Nonabelian 2-groups all of whose maximal subgroups, except one, are quasi-Hamiltonian or abelian 200
  54. § 307 Nonabelian p-groups, p > 2, all of whose maximal subgroups, except one, are quasi-Hamiltonian or abelian 205
  55. § 308 Nonabelian p-groups with an elementary abelian intersection of any two distinct maximal abelian subgroups 210
  56. § 309 Minimal non-p-central p-groups 211
  57. § 310 Nonabelian p-groups in which each element in any minimal nonabelian subgroup is half-central 213
  58. § 311 Nonabelian p-groups G of exponent p in which CG(x) = <x> G for all noncentral x ∈ G 214
  59. § 312 Nonabelian 2-groups all of whose minimal nonabelian subgroups, except one, are isomorphic to M2(2, 2) = <a, b / a4 = b4 = 1, ab = a−1> 215
  60. § 313 Non-Dedekindian 2-groups all of whose maximal Dedekindian subgroups have index 2 223
  61. § 314 Theorem of Glauberman–Mazza on p-groups with a nonnormal maximal elementary abelian subgroup of order p2 224
  62. § 315 p-groups with some non-p-central maximal subgroups 227
  63. § 316 Nonabelian p-groups, p > 2, of exponent > p3 all of whose minimal nonabelian subgroups, except one, have order p3 228
  64. § 317 Nonabelian p-groups, p > 2, all of whose minimal nonabelian subgroups are isomorphic to Mp(2, 2) 231
  65. § 318 Nonabelian p-groups, p > 2, of exponent > p2 all of whose minimal nonabelian subgroups, except one, are isomorphic to Mp(2, 2) 233
  66. § 319 A new characterization of p-central p-groups 236
  67. § 320 Nonabelian p-groups with exactly one non-p-central minimal nonabelian subgroup 237
  68. § 321 Nonabelian p-groups G in which each element in G − Φ(G) is half-central 239
  69. § 322 Nonabelian p-groups G such that CG(H) = Z(G) for any nonabelian H ≤ G 240
  70. § 323 Nonabelian p-groups that are not generated by its noncyclic abelian subgroups 241
  71. § 324 A separation of metacyclic and nonmetacyclic minimal nonabelian subgroups in nonabelian p-groups 242
  72. § 325 p-groups which are not generated by their nonnormal subgroups, 2 243
  73. § 326 Nonabelian p-groups all of whose maximal abelian subgroups are normal 244
  74. Appendix 110 Non-absolutely regular p-groups all of whose maximal absolutely regular subgroups have index p 245
  75. Appendix 111 Nonabelian p-groups of exponent > p all of whose maximal abelian subgroups of exponent > p are isolated 247
  76. Appendix 112 Metacyclic p-groups with an abelian maximal subgroup 249
  77. Appendix 113 Nonabelian p-groups with a cyclic intersection of any two distinct maximal abelian subgroups 251
  78. Appendix 114 An analog of Thompson’s dihedral lemma 253
  79. Appendix 115 Some results from Thompson’ papers and the Odd Order paper 255
  80. Appendix 116 On normal subgroups of a p-group 257
  81. Appendix 117 Theorem of Mann 263
  82. Appendix 118 On p-groups with given isolated subgroups 264
  83. Appendix 119 Two-generator normal subgroups of a p-group G that contained in Φ(G) are metacyclic 269
  84. Appendix 120 Alternate proofs of some counting theorems 270
  85. Appendix 121 On p-groups of maximal class 275
  86. Appendix 122 Criteria of regularity 283
  87. Appendix 123 Nonabelian p-groups in which any two nonincident subgroups have an abelian intersection 285
  88. Appendix 124 Characterizations of the p-groups of maximal class and the primary ECF-groups 287
  89. Appendix 125 Nonabelian p-groups all of whose proper nonabelian subgroups have exponent p 289
  90. Appendix 126 On p-groups with abelian automorphism groups 291
  91. Appendix 127 Alternate proof of Proposition 1.23 293
  92. Appendix 128 Alternate proof of the theorem of Passman on p-groups all of whose subgroups of order ≤ ps (s ≥ 1 is fixed) are normal 294
  93. Appendix 129 Alternate proofs of Theorems 309.1 and 309.2 on minimal non-p-central p-groups 297
  94. Appendix 130 Non-Dedekindian p-groups all of whose nonnormal maximal cyclic subgroups are conjugate 299
  95. Appendix 131 A characterization of some 3-groups of maximal class 301
  96. Appendix 132 Alternate approach to classification of minimal non-p-central p-groups 303
  97. Appendix 133 Nonabelian p-groups all of whose minimal nonabelian subgroups are isomorphic to Mp(n, n) or Mp(n, n, 1) for a fixed natural n > 1 305
  98. Appendix 134 On irregular p-groups G = Ω1(G) without subgroup of order pp+1 and exponent p 308
  99. Appendix 135 Nonabelian 2-groups of given order with maximal possible number of involutions 311
  100. Appendix 136 On metacyclic p-groups 315
  101. Appendix 137 Alternate proof of Lemma 207.1 317
  102. Appendix 138 Subgroup characterization of a p-group of maximal class with an abelian subgroup of index p 319
  103. Research problems and themes VI 321
  104. Bibliography 365
  105. Author index 377
  106. Subject index 379
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