href="@public@vhost@g@gutenberg@html@files@18986@[email protected]#fig57" class="pginternal" tag="{http://www.w3.org/1999/xhtml}a">57.
Top View of the Vibration Cell |
96 |
58. |
Influence of Annealing in the Enhancement of Response in Metals |
101 |
59. |
Uniform Electric Responses in Metals |
102 |
60. |
Persistence of After-effect |
105 |
61. |
Prolongation of Period of Recovery after Overstrain |
106 |
62. |
Molecular Model |
107 |
63, 64. |
Effects of Removal of Molecular Sluggishness in Quickened Recovery and Heightened Response in Metals |
109, 110 |
65. |
Effect of Temperature on Response in Metals |
111 |
66. |
Diphasic Variation in Metals |
113 |
67. |
Negative, Diphasic, and Positive Resultant Response in Metals |
115 |
68. |
Continuous Transformation from Negative to Positive through Intermediate Diphasic Response |
116 |
69. |
Fatigue in Muscle |
118 |
70. |
Fatigue in Platinum |
118 |
71. |
Fatigue in Tin |
119 |
72. |
Appearance of Fatigue due to Shortening the Period of Recovery |
120 |
73. |
Fatigue in Metal under Continuous Stimulation |
121 |
74. |
‘Staircase’ Response in Muscle and in Metal |
122 |
75. |
Abnormal Response in Nerve converted into Normal under Continued Stimulation |
124 |
76, 77. |
Abnormal Response in Tin and Platinum converted into Normal under Continued Stimulation |
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