Fig. 27.1
Human spinal acquired subdural space. Scanning electron microscopy. Magnification × 33
Fig. 27.2
Human spinal acquired subdural space. Scanning electron microscopy. Magnification × 20 (From Reina et al. [1]; with permission)
Fig. 27.3
Human spinal acquired subdural space. Scanning electron microscopy. Magnification: (a) ×30; (b) ×60 (b From Reina et al. [1]; with permission)
Fig. 27.4
Human spinal acquired subdural space. Scanning electron microscopy. Magnification: (a) ×25; (b) ×25
Fig. 27.5
Human spinal acquired subdural space. Scanning electron microscopy. Magnification: (a) ×25; (b) ×25
Fig. 27.6
Three-Dimensional Visualization of Spinal Cerebrospinal Fluid and Cauda Equina Nerve Roots, and Estimation of a Related Vulnerability Ratio
The Ligamentum Flavum
Transmission Electron Microscopy
Structure of Nerve Lesions After “In Vitro” Punctures
Injection of Dye Inside the Paraneural Sheath of the Sciatic Nerve in the Popliteal Fossa
Macroscopic View of the Cervical Plexus and Brachial Plexus
Human spinal acquired subdural space. Scanning electron microscopy. Magnification × 35 (From Reina et al. [1]; with permission)
Related posts:
Three-Dimensional Visualization of Spinal Cerebrospinal Fluid and Cauda Equina Nerve Roots, and Estimation of a Related Vulnerability Ratio
The Ligamentum Flavum
Transmission Electron Microscopy
Structure of Nerve Lesions After “In Vitro” Punctures
Injection of Dye Inside the Paraneural Sheath of the Sciatic Nerve in the Popliteal Fossa
Macroscopic View of the Cervical Plexus and Brachial Plexus
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