<p>A: Cross-section of the spine showing its hollow center and porous wall architecture (scale bar = 1.0 mm). B: Outer surface of the spine. Barbs point toward the spine’s tip, shown here on left (scale bar = 200 micron). C: Fracture surface of a wedge of the spine (scale bar = 100 micron). The appearance is reminiscent of fracture morphology of glass. Top arrow points to the root of crack initiation. Bottom arrow points to a feature on the external surface of the wedge, also seen in B, which identifies the external surface, and confirms that crack initiation started on the outer surface.</p
Sea urchin spines have been studied for numerous reasons including their crystallographic and chemic...
Scanning electron microscope image of Strongylocentrotus drobachiensus [sea urchin] embryo at the la...
Igestive tract. Resolution: (81 μm), no contrast agent added. The two specimens show a high degree o...
The endoskeletal structure of the Sea Urchin, Centrostephanus rodgersii, has numerous long spines wh...
Sea urchins have characteristic spines that fulfil critical functions. Several studies revealed mark...
Sea urchins are marine animals that crystallize calcite as the major skeleton building material. Reg...
Sea urchin spines of Holopneustes porossisimus are porous singlecrystals, with the pores being fille...
Growth dynamics of the primary spine of the cidaroid sea urchin Phyllacanthus imperialis was assesse...
We investigated the plasticity of spines of the burrowing heart urchin Echinocardium cordatum inhabi...
FIGURE 3. Transversal fracture of a spine of the sea urchin Eucidaris thouarsii (SEM) showing the st...
Sea Urchins @. Echlnodems cl. Echinoidea) with their geodesic dome shape, over 1,000 spines and at t...
The skeletal morphology of the arm spine joint of the brittlestar Ophiocomina nigra was examined by ...
The sea urchin spine of Phyllacanthus imperialis is characterized by a lightweight construction unde...
Includes bibliographical references (pages 43-47)Freeze-fracture electron microscopy was used to ana...
Igestive tract. Resolution: (81 μm), no contrast agent added. The two specimens show a high degree o...
Sea urchin spines have been studied for numerous reasons including their crystallographic and chemic...
Scanning electron microscope image of Strongylocentrotus drobachiensus [sea urchin] embryo at the la...
Igestive tract. Resolution: (81 μm), no contrast agent added. The two specimens show a high degree o...
The endoskeletal structure of the Sea Urchin, Centrostephanus rodgersii, has numerous long spines wh...
Sea urchins have characteristic spines that fulfil critical functions. Several studies revealed mark...
Sea urchins are marine animals that crystallize calcite as the major skeleton building material. Reg...
Sea urchin spines of Holopneustes porossisimus are porous singlecrystals, with the pores being fille...
Growth dynamics of the primary spine of the cidaroid sea urchin Phyllacanthus imperialis was assesse...
We investigated the plasticity of spines of the burrowing heart urchin Echinocardium cordatum inhabi...
FIGURE 3. Transversal fracture of a spine of the sea urchin Eucidaris thouarsii (SEM) showing the st...
Sea Urchins @. Echlnodems cl. Echinoidea) with their geodesic dome shape, over 1,000 spines and at t...
The skeletal morphology of the arm spine joint of the brittlestar Ophiocomina nigra was examined by ...
The sea urchin spine of Phyllacanthus imperialis is characterized by a lightweight construction unde...
Includes bibliographical references (pages 43-47)Freeze-fracture electron microscopy was used to ana...
Igestive tract. Resolution: (81 μm), no contrast agent added. The two specimens show a high degree o...
Sea urchin spines have been studied for numerous reasons including their crystallographic and chemic...
Scanning electron microscope image of Strongylocentrotus drobachiensus [sea urchin] embryo at the la...
Igestive tract. Resolution: (81 μm), no contrast agent added. The two specimens show a high degree o...