Case pg267, fig12. Soma notes not specified.. Terminal notes WGA-HRP inj.

Case pg261. Soma notes 9 Injs centred in ILC?In expt R652 (fig2B) in which dorsal peduncular cortex & tenia tecta were excluded from inj site

Case pg264. Soma notes previous injections were fibres of passage. Terminal notes WGA-HRP inj.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The dorsal efferent pathway from the ILC innervated mainly layers I, V, and VI of the prelimbic and anterior cingulate cortices (Fig. 3A). Finely arborized axons and boutons were found throughout these regions. Collator note: Fig 3A corresponds to Atlas Level 14, Swanson 2004 Atlas. Collator note: we consider here a combinatorial approach, since there is no additional information about the layer specificity of connections.

The piriform cortex received innervation via both the lateral and ventral pathways (see Fig. 3A-D). Labelled fibers were observed throughout the rostral piriform cortex. primarily in the molecular and polymorph layers. Fibers in the molecular layer demonstrated varicosities along their lengths, whereas labelled fibers in the polymorph layers only occasionally exhibited swellings. At rostral levels, the dorsolateral portion of the piriform cortex demonstrated a slightly heavier innervation as compared to other parts of the piriform cortex. These fibers apparently arose from the lateral efferent pathway. By the level of the septum and proceeding further caudally, the density of innervation in the piriform cortex began to shift ventrally and arose primarily from the ventral efferent pathway. The majority of labelled fibers formed a dense plexus within the molecular layer. Some labelled fibers pierced the pyramidal layer perpendicular to the pial surface and entered the polymorph cell layer. Collator note: molecular layer, considered as a separate record.

The piriform cortex received innervation via both the lateral and ventral pathways (see Fig. 3A-D). Labelled fibers were observed throughout the rostral piriform cortex. primarily in the molecular and polymorph layers. Fibers in the molecular layer demonstrated varicosities along their lengths, whereas labelled fibers in the polymorph layers only occasionally exhibited swellings. At rostral levels, the dorsolateral portion of the piriform cortex demonstrated a slightly heavier innervation as compared to other parts of the piriform cortex. These fibers apparently arose from the lateral efferent pathway. By the level of the septum and proceeding further caudally, the density of innervation in the piriform cortex began to shift ventrally and arose primarily from the ventral efferent pathway. The majority of labelled fibers formed a dense plexus within the molecular layer. Some labelled fibers pierced the pyramidal layer perpendicular to the pial surface and entered the polymorph cell layer. Collator note: polymorph layer, considered as a separate record.

The piriform cortex received innervation via both the lateral and ventral pathways (see Fig. 3A-D). Labelled fibers were observed throughout the rostral piriform cortex. primarily in the molecular and polymorph layers. Fibers in the molecular layer demonstrated varicosities along their lengths, whereas labelled fibers in the polymorph layers only occasionally exhibited swellings. At rostral levels, the dorsolateral portion of the piriform cortex demonstrated a slightly heavier innervation as compared to other parts of the piriform cortex. These fibers apparently arose from the lateral efferent pathway. By the level of the septum and proceeding further caudally, the density of innervation in the piriform cortex began to shift ventrally and arose primarily from the ventral efferent pathway. The majority of labelled fibers formed a dense plexus within the molecular layer. Some labelled fibers pierced the pyramidal layer perpendicular to the pial surface and entered the polymorph cell layer. Collator note: molecular layer, considered as a separate record.

The piriform cortex received innervation via both the lateral and ventral pathways (see Fig. 3A-D). Labelled fibers were observed throughout the rostral piriform cortex. primarily in the molecular and polymorph layers. Fibers in the molecular layer demonstrated varicosities along their lengths, whereas labelled fibers in the polymorph layers only occasionally exhibited swellings. At rostral levels, the dorsolateral portion of the piriform cortex demonstrated a slightly heavier innervation as compared to other parts of the piriform cortex. These fibers apparently arose from the lateral efferent pathway. By the level of the septum and proceeding further caudally, the density of innervation in the piriform cortex began to shift ventrally and arose primarily from the ventral efferent pathway. The majority of labelled fibers formed a dense plexus within the molecular layer. Some labelled fibers pierced the pyramidal layer perpendicular to the pial surface and entered the polymorph cell layer. Collator note: polymorph layer, considered as a separate record.

Deep to the piriform cortex, the endopiriform nucleus contained a number of short, fine labelled fibers that had few varicosities along their lengths and ran perpendicular to the external capsule (Fig. 3A). Collator note: we were unable to unequivocally assign a qualitative density for this connection. See Fig. 3A from the associated paper.

The density of labelled fibers in the agranular insular cortex was most pronounced in layer I (Fig. 3A,B). Most PHA-L containing fibers within this region were largely short, demonstrated boutons along their lengths and were radially oriented. Labelled fibers in layer I tended to be of a thicker caliber than the smaller numbers of scattered fibers present in the deeper layers of the insular cortex. Collator note: the terminal fields extend in all divisions of the AI (Figs 3 A, B, which correspond to Atlas Leves 13-14 and 17-18, respectively). We consider here 2 separate entries for each AI region: one for the general region, and one for layer I.

The density of labelled fibers in the agranular insular cortex was most pronounced in layer I (Fig. 3A,B). Most PHA-L containing fibers within this region were largely short, demonstrated boutons along their lengths and were radially oriented. Labelled fibers in layer I tended to be of a thicker caliber than the smaller numbers of scattered fibers present in the deeper layers of the insular cortex. Collator note: the terminal fields extend in all divisions of the AI (Figs 3 A, B, which correspond to Atlas Leves 13-14 and 17-18, respectively). We consider here 2 separate entries for each AI region: one for the general region, and one for layer I.

The density of labelled fibers in the agranular insular cortex was most pronounced in layer I (Fig. 3A,B). Most PHA-L containing fibers within this region were largely short, demonstrated boutons along their lengths and were radially oriented. Labelled fibers in layer I tended to be of a thicker caliber than the smaller numbers of scattered fibers present in the deeper layers of the insular cortex. Collator note: the terminal fields extend in all divisions of the AI (Figs 3 A, B, which correspond to Atlas Leves 13-14 and 17-18, respectively). We consider here 2 separate entries for each AI region: one for the general region, and one for layer I.

The density of labelled fibers in the agranular insular cortex was most pronounced in layer I (Fig. 3A,B). Most PHA-L containing fibers within this region were largely short, demonstrated boutons along their lengths and were radially oriented. Labelled fibers in layer I tended to be of a thicker caliber than the smaller numbers of scattered fibers present in the deeper layers of the insular cortex. Collator note: the terminal fields extend in all divisions of the AI (Figs 3 A, B, which correspond to Atlas Leves 13-14 and 17-18, respectively). We consider here 2 separate entries for each AI region: one for the general region, and one for layer I.

The density of labelled fibers in the agranular insular cortex was most pronounced in layer I (Fig. 3A,B). Most PHA-L containing fibers within this region were largely short, demonstrated boutons along their lengths and were radially oriented. Labelled fibers in layer I tended to be of a thicker caliber than the smaller numbers of scattered fibers present in the deeper layers of the insular cortex. Collator note: the terminal fields extend in all divisions of the AI (Figs 3 A, B, which correspond to Atlas Leves 13-14 and 17-18, respectively). We consider here 2 separate entries for each AI region: one for the general region, and one for layer I.

The density of labelled fibers in the agranular insular cortex was most pronounced in layer I (Fig. 3A,B). Most PHA-L containing fibers within this region were largely short, demonstrated boutons along their lengths and were radially oriented. Labelled fibers in layer I tended to be of a thicker caliber than the smaller numbers of scattered fibers present in the deeper layers of the insular cortex. Collator note: the terminal fields extend in all divisions of the AI (Figs 3 A, B, which correspond to Atlas Leves 13-14 and 17-18, respectively). We consider here 2 separate entries for each AI region: one for the general region, and one for layer I.

The medial subdivision of the central nucleus was particularly heavily innervated by thin and medium caliber fibers demonstrating numerous varicosities (Fig. 4A). Collator note: the termination field in the rostral amygdala is particularly heavy from the external capsule-amygdalar capsule down to the optic tract. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 26-29, but this mapping may be valid only to ventral half.

Collator note: the termination field in the rostral amygdala is particularly heavy from the external capsule-amygdalar capsule down to the optic tract. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 26-29, but this mapping may be valid only to ventral half.

Collator note: the termination field in the rostral amygdala is particularly heavy from the external capsule-amygdalar capsule down to the optic tract. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 26-29, but this mapping may be valid only to ventral half.

Collator note: the termination field in the rostral amygdala is particularly heavy from the external capsule-amygdalar capsule down to the optic tract. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 26-29, but this mapping may be valid only to ventral half.

Collator note: the termination field in the rostral amygdala is particularly heavy from the external capsule-amygdalar capsule down to the optic tract. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 26-29, but this mapping may be valid only to ventral half.

Collator note: the termination field in the rostral amygdala is particularly heavy from the external capsule-amygdalar capsule down to the optic tract. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 26-29, but this mapping may be valid only to ventral half.

The basolateral and lateral nuclei of the amygdala contained fewer labelled fibers than the adjacent cortical and medial nuclei (Fig. 3E,F). Collator note: the termination field in the rostral amygdala is particularly heavy from the external capsule-amygdalar capsule down to the optic tract. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

The basolateral and lateral nuclei of the amygdala contained fewer labelled fibers than the adjacent cortical and medial nuclei (Fig. 3E,F). Collator note: the termination field in the rostral amygdala is particularly heavy from the external capsule-amygdalar capsule down to the optic tract. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

The basolateral and lateral nuclei of the amygdala contained fewer labelled fibers than the adjacent cortical and medial nuclei (Fig. 3E,F). Collator note: the termination field in the rostral amygdala is particularly heavy from the external capsule-amygdalar capsule down to the optic tract. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

The basolateral and lateral nuclei of the amygdala contained fewer labelled fibers than the adjacent cortical and medial nuclei (Fig. 3E,F). Collator note: the termination field in the rostral amygdala is particularly heavy from the external capsule-amygdalar capsule down to the optic tract. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

The basolateral and lateral nuclei of the amygdala contained fewer labelled fibers than the adjacent cortical and medial nuclei (Fig. 3E,F). Collator note: the termination field in the rostral amygdala is particularly heavy from the external capsule-amygdalar capsule down to the optic tract. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

The basolateral and lateral nuclei of the amygdala contained fewer labelled fibers than the adjacent cortical and medial nuclei (Fig. 3E,F). Afferents to the rostral lateral nucleus were oriented in a dorsoventral fashion and primarily distributed in the dorsolateral subdivision of the nucleus, though in more caudal sections the labelled fibers were observed in the ventral parts as well. Collator note: Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

Collator note: Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

Collator note: Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

Collator note: NLOT3 (dorsal cap) appears to be labeleed light-to-moderate. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

Labelling was comparatively more sparse [collator note: than in the rostral amygdalar nuclei] in the caudal amygdala (Fig. 3G,H). Both smooth and varicose labelled fibers were found in the posterior basolateral and the basomedial nuclei. Collator note: Figures 3H-G that include the amygdalar nuclei may correspond to Swanson Atlas Levels 31-36, but this mapping may be valid only to ventral half.

Labelling was comparatively more sparse [collator note: than in the rostral amygdalar nuclei] in the caudal amygdala (Fig. 3G,H). Both smooth and varicose labelled fibers were found in the posterior basolateral and the basomedial nuclei. Collator note: Figures 3H-G that include the amygdalar nuclei may correspond to Swanson Atlas Levels 31-36, but this mapping may be valid only to ventral half.

Labelling was comparatively more sparse [collator note: than in the rostral amygdalar nuclei] in the caudal amygdala (Fig. 3G,H). Both smooth and varicose labelled fibers were found in the posterior basolateral and the basomedial nuclei. Collator note: Figures 3H-G that include the amygdalar nuclei may correspond to Swanson Atlas Levels 31-36, but this mapping may be valid only to ventral half.

Collator note: all MEApd zones appear labeled heavily in Figures 3C-F, even though there is no supporting textual information. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

Collator note: all MEApd zones appear labeled heavily in Figures 3C-F, even though there is no supporting textual information. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

Collator note: all MEApd zones appear labeled heavily in Figures 3C-F, even though there is no supporting textual information. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

Collator note: MEApv zones appears labeled heavily in Figures 3D-E, even though there is no supporting textual information. Exception maybe is in Figure 3F, which shows an empty field, just below the optic tract labeled as "MEA" by authors. This would correspond to MEApv in Swanson Atlas, level 29. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

Collator note: MEApv zones appears labeled heavily in Figures 3D-E, even though there is no supporting textual information. Exception maybe is in Figure 3F, which shows an empty field, just below the optic tract labeled as "MEA" by authors. This would correspond to MEApv in Swanson Atlas, level 29. We therefore consider this as an "absent" projection. Figures 3C-F that include the amygdalar nuclei may correspond to Swanson Atlas Levels 24-30, but this mapping may be valid only to ventral half.

The posterior cortical nucleus of the amygdala also contained a few labelled medium and fine caliber fibers with boutons along their lengths. Finally, the amygdalo-hippocampal transition area was innervated by medium caliber fibers with frequent boutons. Collator note: Figures 3G-H that include the amygdalar nuclei roughly correspond to Swanson Atlas Levels 31-34.

The posterior cortical nucleus of the amygdala also contained a few labelled medium and fine caliber fibers with boutons along their lengths. Finally, the amygdalo-hippocampal transition area was innervated by medium caliber fibers with frequent boutons. Collator note: Figures 3G-H that include the amygdalar nuclei roughly correspond to Swanson Atlas Levels 31-34.

The posterior cortical nucleus of the amygdala also contained a few labelled medium and fine caliber fibers with boutons along their lengths. Finally, the amygdalo-hippocampal transition area was innervated by medium caliber fibers with frequent boutons. Collator note: Figures 3G-H that include the amygdalar nuclei roughly correspond to Swanson Atlas Levels 31-34.

[...] the dorsal and ventral presubiculum were innervated by fibers with comparatively fewer varicosities and the hippocampus proper contained only a few PHA-L labelled fibers, mainly in the molecular layer of the CA1 cell field (Fig. 3H). Collator note: Figures 3G-H that include the amygdalar nuclei roughly correspond to Swanson Atlas Levels 31-34. Most fibers are shown in the temporal (ventral) part of the hippocampal regions, and only rostrally (there are no Figures showing the intermediate or caudal parts.

[...] the dorsal and ventral presubiculum were innervated by fibers with comparatively fewer varicosities and the hippocampus proper contained only a few PHA-L labelled fibers, mainly in the molecular layer of the CA1 cell field (Fig. 3H). Collator note: Figures 3G-H that include the amygdalar nuclei roughly correspond to Swanson Atlas Levels 31-34. Most fibers are shown in the temporal (ventral) part of the hippocampal regions, and only rostrally (there are no Figures showing the intermediate or caudal parts.

[...] the dorsal and ventral presubiculum were innervated by fibers with comparatively fewer varicosities and the hippocampus proper contained only a few PHA-L labelled fibers, mainly in the molecular layer of the CA1 cell field (Fig. 3H). Collator note: Figures 3G-H that include the amygdalar nuclei roughly correspond to Swanson Atlas Levels 31-34. Most fibers are shown in the temporal (ventral) part of the hippocampal regions, and only rostrally (there are no Figures showing the intermediate or caudal parts.

[...] the dorsal and ventral presubiculum were innervated by fibers with comparatively fewer varicosities and the hippocampus proper contained only a few PHA-L labelled fibers, mainly in the molecular layer of the CA1 cell field (Fig. 3H). Collator note: Figures 3G-H that include the amygdalar nuclei roughly correspond to Swanson Atlas Levels 31-34. Most fibers are shown in the temporal (ventral) part of the hippocampal regions, and only rostrally (there are no Figures showing the intermediate or caudal parts.

The lateral entorhinal cortex received a projection of medium caliber fibers with boutons which were primarily distributed to the deeper cortical layers. A few labelled fibers were observed in layers I and III.

The lateral entorhinal cortex received a projection of medium caliber fibers with boutons which were primarily distributed to the deeper cortical layers. A few labelled fibers were observed in layers I and III.

The lateral entorhinal cortex received a projection of medium caliber fibers with boutons which were primarily distributed to the deeper cortical layers. A few labelled fibers were observed in layers I and III.

The bed nucleus of the stria terminalis contained a number of fine to medium caliber fibers that exhibited numerous varicosities along their lengths. These fibers were clustered primarily in the lateral and ventrolateral subdivisions of this cell group (Figs. 3B, 4B). Collator note: Figure 3B corresponds to Swanson Atlas Levels 17-18. Only the rostral part of the BST was mapped in this case. It is possible that nuclei caudal to this level (approx. 0 mm from bregma) are also targets of the ILA.

The bed nucleus of the stria terminalis contained a number of fine to medium caliber fibers that exhibited numerous varicosities along their lengths. These fibers were clustered primarily in the lateral and ventrolateral subdivisions of this cell group (Figs. 3B, 4B). Collator note: Figure 3B corresponds to Swanson Atlas Levels 17-19. Only the rostral part of the BST was mapped in this case. It is possible that nuclei caudal to this level (approx. 0 mm from bregma) are also targets of the ILA.

The bed nucleus of the stria terminalis contained a number of fine to medium caliber fibers that exhibited numerous varicosities along their lengths. These fibers were clustered primarily in the lateral and ventrolateral subdivisions of this cell group (Figs. 3B, 4B). Collator note: Figure 3B corresponds to Swanson Atlas Levels 17-19. Only the rostral part of the BST was mapped in this case. It is possible that nuclei caudal to this level (approx. 0 mm from bregma) are also targets of the ILA.

The bed nucleus of the stria terminalis contained a number of fine to medium caliber fibers that exhibited numerous varicosities along their lengths. These fibers were clustered primarily in the lateral and ventrolateral subdivisions of this cell group (Figs. 3B, 4B). Collator note: Figure 3B corresponds to Swanson Atlas Levels 17-19. Only the rostral part of the BST was mapped in this case. It is possible that nuclei caudal to this level (approx. 0 mm from bregma) are also targets of the ILA. BSTsc, however, appears to be devoid of fibers. This can be a criterion for demarcation of BSTsc, or at least of a specific neuron population...

The bed nucleus of the stria terminalis contained a number of fine to medium caliber fibers that exhibited numerous varicosities along their lengths. These fibers were clustered primarily in the lateral and ventrolateral subdivisions of this cell group (Figs. 3B, 4B). Collator note: Figure 3B corresponds to Swanson Atlas Levels 17-18. Only the rostral part of the BST was mapped in this case. It is possible that nuclei caudal to this level (approx. 0 mm from bregma) are also targets of the ILA. BSTsc, however, appears to be devoid of fibers. Very few fibers in the BSTdm, if any....

The nucleus accumbens (Fig. 3A) exhibited numerous fascicles of labelled fibers that followed a diagonal trajectory across the nucleus from dorsomedial to ventrolateral. Fine and medium caliber individual labelled fibers branched profusely, exhibiting numerous boutons along their lengths. Collator note: Fig. 3A corresponds to Swanson Atlas Levels 14-15 (lot as a fiducial point). The labeled fibers and terminal fields appear to extend into the fundus of striatum, but seem to avoid the SI (notice the specific shape of the unlabeled tissue, ventral to ACb and dorsal to OT), at least at this level.

In the ventral putamen (Fig. 3A), smooth labelled fibers clustered together to form several fascicles. In addition to these bundles of labelled axons, a dense plexus of labelled fibers was also present throughout the ventral putamen. These fibers were of medium or fine caliber, were oriented in a medial to lateral direction, and exhibited numerous branch points and boutons along their lengths. Collator note: Fig. 3A corresponds to Swanson Atlas Levels 14-15 (lot as a fiducial point).

In the ventral putamen (Fig. 3A), smooth labelled fibers clustered together to form several fascicles. In addition to these bundles of labelled axons, a dense plexus of labelled fibers was also present throughout the ventral putamen. These fibers were of medium or fine caliber, were oriented in a medial to lateral direction, and exhibited numerous branch points and boutons along their lengths. Collator note: Fig. 3A corresponds to Swanson Atlas Levels 14-15 (lot as a fiducial point).

The midline thalamic nuclei contained labelled fibers that appeared to arise from the dorsal component of the ventral efferent pathway that ran along the wall of the third ventricle caudal to the anterior commissure. In the most rostral portion of the thalamus, medium and fine labelled fibers with densely clustered varicosities were found predominantly in the dorsomedial part of the ipsilateral paratenial nucleus where they were oriented in a dorsoventral direction (Fig. 3C). Collator note: Fig 3C roughly corresponds to Swanson Atlas Level 24. PT appears to be labeled entirely.

A smaller number [collator note:than those labeled in PT] of finer fibers with boutons along their lengths, also oriented in a dorsoventral direction, were present in the paraventricular nucleus of the thalamus (Fig. 3D-F). Collator note: Fig. 3D-F correspond Swanson Atlas Levels 24-30.

The midline thalamic nuclei contained labelled fibers that appeared to arise from the dorsal component of the ventral efferent pathway that ran along the wall of the third ventricle caudal to the anterior commissure. Collator note:see Fig. 3D-F. Fig. 3D-F correspond Swanson Atlas Levels 24-30.

Labeled fibers tended to cluster along the medial edge of the mediodorsal nucleus where they were oriented in a dorsoventral direction (Fig. 5A).

Labeled fibers tended to cluster along the medial edge of the mediodorsal nucleus where they were oriented in a dorsoventral direction (Fig. 5A).

Labeled fibers tended to cluster along the medial edge of the mediodorsal nucleus where they were oriented in a dorsoventral direction (Fig. 5A). IAM appears to be labeled, at least in its ventral part.

Labeled fibers tended to cluster along the medial edge of the mediodorsal nucleus where they were oriented in a dorsoventral direction (Fig. 5A). CM appears to be labeled, at least in its dorsal part.

In the reuniens nucleus, (Fig. 3D) labelled fibers of medium and fine caliber exhibited numerous swellings and boutons along their lengths. These axons were oriented in a mediolateral direction, though along the midline of the nucleus there were several fibers that coursed in a dorsoventral direction, apparently ascending as part of the dorsal component of the ventral pathway toward the paraventricular and paratenial thalamic nuclei.

In the reuniens nucleus, (Fig. 3D) labelled fibers of medium and fine caliber exhibited numerous swellings and boutons along their lengths. These axons were oriented in a mediolateral direction, though along the midline of the nucleus there were several fibers that coursed in a dorsoventral direction, apparently ascending as part of the dorsal component of the ventral pathway toward the paraventricular and paratenial thalamic nuclei.

In the reuniens nucleus, (Fig. 3D) labelled fibers of medium and fine caliber exhibited numerous swellings and boutons along their lengths. These axons were oriented in a mediolateral direction, though along the midline of the nucleus there were several fibers that coursed in a dorsoventral direction, apparently ascending as part of the dorsal component of the ventral pathway toward the paraventricular and paratenial thalamic nuclei.

In more caudal sections the innervation of the reuniens nucleus became so dense that the orientation of individual fibers was obscured, though the terminal-like processes seemed largely to be located in the ventral half of the nucleus (see Fig. 3C-F).

In more caudal sections the innervation of the reuniens nucleus became so dense that the orientation of individual fibers was obscured, though the terminal-like processes seemed largely to be located in the ventral half of the nucleus (see Fig. 3C-F).

In more caudal sections the innervation of the reuniens nucleus became so dense that the orientation of individual fibers was obscured, though the terminal-like processes seemed largely to be located in the ventral half of the nucleus (see Fig. 3C-F).

In more caudal sections through the thalamus, labelled efferents were seen within the parafasicular and subparafasicular nuclei (Fig. 3G). These fibers were of a relatively thin caliber with few swellings or varicosities.

[...] principal target was the lateral hypothalamic area, in particular its ventrolateral and perifornical regions (Figs. 3D-G, 5C,D). Although innervation of the anterior part of the lateral hypothalamic area was scant, varicose fibers running in a mediolateral direction were prominent in the retrochiasmatic area.

[...] principal target was the lateral hypothalamic area, in particular its ventrolateral and perifornical regions (Figs. 3D-G, 5C,D). Although innervation of the anterior part of the lateral hypothalamic area was scant, varicose fibers running in a mediolateral direction were prominent in the retrochiasmatic area.

[....]a dense terminal field in the tuberomamillary nucleus.

The bed nucleus of the stria terminalis contained a number of fine to medium caliber fibers that exhibited numerous varicosities along their lengths. These fibers were clustered primarily in the lateral and ventrolateral subdivisions of this cell group (Figs. 3B, 4B). Collator note: Figure 3B corresponds to Swanson Atlas Levels 17-19. Only the rostral part of the BST was mapped in this case. It is possible that nuclei caudal to this level (approx. 0 mm from bregma) are also targets of the ILA. BSTov and BStju may be targets of ILA, but Fig 3B does not show the characteristic internal capsule, lateral to these 2 nuclei.

The bed nucleus of the stria terminalis contained a number of fine to medium caliber fibers that exhibited numerous varicosities along their lengths. These fibers were clustered primarily in the lateral and ventrolateral subdivisions of this cell group (Figs. 3B, 4B). Collator note: Figure 3B corresponds to Swanson Atlas Levels 17-19. Only the rostral part of the BST was mapped in this case. It is possible that nuclei caudal to this level (approx. 0 mm from bregma) are also targets of the ILA. BSTov and BStju may be targets of ILA, but Fig 3B does not show the characteristic internal capsule, lateral to these 2 nuclei.

Collator note: few fibers in what appears to be AHNc and AHNa, Swanson Atlas Levels 23-25.

Collator note: few fibers in what appears to be AHNc and AHNa, Swanson Atlas Levels 23-25.

At the rostral tip of the third ventricle labelled fibers oriented in a dorsoventral direction were seen within the anteroventral periventricular nucleus (Fig. 3B). The fibers were of either medium or fine caliber with varicosities and stalks distributed along their lengths. Some terminals also appeared as punctate labelling covering neuronal cell bodies.

Within the medial preoptic area labelled fibers, organized in a mediolateral orientation, were generally of a medium diameter with boutons and stalk-like appendages distributed along their lengths (Fig. 3B). These fibers gave off branches that were thinner than the parent fiber and tended to be smooth. In addition, many well-filled fibers of a larger caliber crossed the preoptic region on a diagonal, arcing in a ventromedial to dorsolateral direction.

Within the medial preoptic area labelled fibers, organized in a mediolateral orientation, were generally of a medium diameter with boutons and stalk-like appendages distributed along their lengths (Fig. 3B). These fibers gave off branches that were thinner than the parent fiber and tended to be smooth. In addition, many well-filled fibers of a larger caliber crossed the preoptic region on a diagonal, arcing in a ventromedial to dorsolateral direction. Collator note: Fig 3B, which roughly corresponds to Swanson Atlas Level 19. Fibers appear to turn into AVP, towards LPO and NDB.

Labelled fibers were more numerous in the dorsal half of the suprachiasmatic nucleus than in the ventral half (Figs. 3C, 6; also Swanson et al., '87). Fibers in the dorsal half of the nucleus were either of fine caliber and smooth with an occasional varicosity, or were of a medium caliber, exhibiting numerous varicosities along their lengths. Collator note: Fig 3C roughly corresponds to Swanson Atlas Levels 23-24. It is unclear what is the pattern of labeling in the rostral part of the SCH.

Labelled fibers in the ventral half of the suprachiasmatic nucleus were generally smooth, exhibiting only a few bouton-like structures. Collator note: Fig 3C roughly corresponds to Swanson Atlas Levels 23-24. It is unclear what is the pattern of labeling in the rostral part of the SCH.

Labelled fibers coursed along the dorsolateral border of the supraoptic nucleus (Fig. 3C,D). A few medium caliber fibers with occasional varicosities entered the nucleus and distributed themselves amongst the most peripherally located magnocellular neurons. These regions of termination were concentrated in the more lateral aspects of the nucleus. In addition, a few smooth labelled fibers were seen within the ipsilateral optic tract. These labelled fibers then ran directly into the supraoptic nucleus where they branched and demonstrated varicosities along their lengths. These fibers did not proceed very far into the nucleus, but appeared to maintain a close association with the optic tract. Coillator note: Swanson Atlas Levels 24-27. The pattern of terminals of SO is complex enough to support a possible remapping of SO.

Like the supraoptic nucleus, the paraventricular nucleus of the hypothalamus was also surrounded by a plexus of medium caliber fibers with terminal processes that closely followed the contours of its borders (Fig. 3D). A few thin, labelled fibers that exhibited occasional boutons and varicosities along their lengths were also observed coursing through the parvocellular portion of the paraventricular nucleus. Collator note: Swanson Atlas Levels 26-27.

Like the supraoptic nucleus, the paraventricular nucleus of the hypothalamus was also surrounded by a plexus of medium caliber fibers with terminal processes that closely followed the contours of its borders (Fig. 3D). A few thin, labelled fibers that exhibited occasional boutons and varicosities along their lengths were also observed coursing through the parvocellular portion of the paraventricular nucleus. Collator note: Swanson Atlas Levels 26-27.

Like the supraoptic nucleus, the paraventricular nucleus of the hypothalamus was also surrounded by a plexus of medium caliber fibers with terminal processes that closely followed the contours of its borders (Fig. 3D). A few thin, labelled fibers that exhibited occasional boutons and varicosities along their lengths were also observed coursing through the parvocellular portion of the paraventricular nucleus. Collator note: Swanson Atlas Levels 26-27.

Like the supraoptic nucleus, the paraventricular nucleus of the hypothalamus was also surrounded by a plexus of medium caliber fibers with terminal processes that closely followed the contours of its borders (Fig. 3D). A few thin, labelled fibers that exhibited occasional boutons and varicosities along their lengths were also observed coursing through the parvocellular portion of the paraventricular nucleus. Collator note: Swanson Atlas Levels 26-27. PVI is labeled with termination fields rostrocaudally, the direction of fibers being dorso-ventral.

Within the dorsal hypothalamic area (just dorsal to the dorsomedial nucleus in Fig. 3F), there were fibers of both fine and medium caliber that exhibited multiple branches with numerous boutons, varicosities, and stalk-like appendages as they followed the dorsal contour of the paraventricular nucleus. In addition a number of labelled fibers appeared to cross the midline just above the third ventricle.

Within the dorsal hypothalamic area (just dorsal to the dorsomedial nucleus in Fig. 3F), there were fibers of both fine and medium caliber that exhibited multiple branches with numerous boutons, varicosities, and stalk-like appendages as they followed the dorsal contour of the paraventricular nucleus. In addition a number of labelled fibers appeared to cross the midline just above the third ventricle.

Within the dorsal hypothalamic area (just dorsal to the dorsomedial nucleus in Fig. 3F), there were fibers of both fine and medium caliber that exhibited multiple branches with numerous boutons, varicosities, and stalk-like appendages as they followed the dorsal contour of the paraventricular nucleus. In addition a number of labelled fibers appeared to cross the midline just above the third ventricle.

Within the dorsal hypothalamic area (just dorsal to the dorsomedial nucleus in Fig. 3F), there were fibers of both fine and medium caliber that exhibited multiple branches with numerous boutons, varicosities, and stalk-like appendages as they followed the dorsal contour of the paraventricular nucleus. In addition a number of labelled fibers appeared to cross the midline just above the third ventricle. Collator note: the direction of the terminal fields in PH at this level (27-30) is dorso-ventral.

As the caudal third ventricle ascended to join the cerebral aqueduct, medium and thin caliber labelled fibers in the posterior hypothalamic area formed a crisscrossing network of axons bearing terminal processes (Fig. 3G). Collator note: Swanson Atlas Levels 31-32.

The infralimbic cortex projects to the supramamillary nucleus while the more ventrally located dorsal peduncular cortex projects to the region of the mamillary body immediately ventral to the ILC terminal field.

The infralimbic cortex projects to the supramamillary nucleus while the more ventrally located dorsal peduncular cortex projects to the region of the mamillary body immediately ventral to the ILC terminal field. Collator note: very difficult to assess the qualitative strength of this connection.

The infralimbic cortex projects to the supramamillary nucleus while the more ventrally located dorsal peduncular cortex projects to the region of the mamillary body immediately ventral to the ILC terminal field. Collator note: we include this connection, because DP is included in the ILA as defined by Swanson. Only the dorsal part of the MM is labeled with terminal fields.

The infralimbic cortex projects to the supramamillary nucleus while the more ventrally located dorsal peduncular cortex projects to the region of the mamillary body immediately ventral to the ILC terminal field. Collator note: we include this connection, because DP is included in the ILA as defined by Swanson. Only the dorsal part of the MM is labeled with terminal fields.

Labelled fibers in the medial forebrain bundle swept dorsomedially through the posterior hypothalamic area into the ventrolateral quadrant of the periaqueductal gray matter (Fig. 3I).

Labelled fibers in the medial forebrain bundle swept dorsomedially through the posterior hypothalamic area into the ventrolateral quadrant of the periaqueductal gray matter (Fig. 3I).

Collator note: see Figure 3I, which roughly corresponds to Swanson Atlas Levels 39-40.

Some of these fibers ran through the Edinger-Westphal nucleus into the periaqueductal gray matter and dorsal raphe nucleus. Collator note: few terminal fields, if any in EW.

Collator note: in MRN, fibers travel in a diagonal fashion, towards the AQ. The label density is variable, see Figs 3I and 3J (Swanson Atlas Levels 39-40 and 45, respectively).

Labelled fibers which traveled in the ventromedial tegmental pathway innervated the interpeduncular nucleus. These fibers were primarily located in the dorsal part of the nucleus and while generally smooth did exhibit occasional terminal boutons (Fig. 3J). Collator note: Fgiure 3J roughly corresponds to Swanson Atlas Level 45.

Labelled fibers which traveled in the ventromedial tegmental pathway innervated the interpeduncular nucleus. These fibers were primarily located in the dorsal part of the nucleus and while generally smooth did exhibit occasional terminal boutons (Fig. 3J). Collator note: Fgiure 3J roughly corresponds to Swanson Atlas Level 45.

Labelled fibers which traveled in the ventromedial tegmental pathway innervated the interpeduncular nucleus. These fibers were primarily located in the dorsal part of the nucleus and while generally smooth did exhibit occasional terminal boutons (Fig. 3J). Collator note: Fgiure 3J roughly corresponds to Swanson Atlas Level 45.

Terminal labelling within the parabrachial nucleus arose as a caudal and lateral extension of the fibers coursing through the periaqueductal gray matter and central tegmental fields (see Fig. 7B; see also Fig. 3L,M). In the rostral parabrachial nucleus, a few labelled fibers of fine caliber found in the superior lateral subnucleus exhibited infrequent swellings along their lengths. Within the central lateral subnucleus there was a denser collection of spinelike processes and boutons along the lengths of fine caliber fibers as they coursed laterally from the periaqueductal gray matter. Both medium and fine caliber fibers, observed within the dorsal and external lateral subnuclei, exhibited boutons and varicosities along their lengths. In the ventrolateral parabrachial subnucleus fine caliber fibers were observed, which also demonstrated varicosities along their lengths. In caudal sections through the parabrachial nucleus, labeling within these subnuclei grew denser. Labeled fibers within the medial subnucleus were oriented in a mediolateral direction. These tended to be smooth with occasional swellings along their lengths in the more lateral part of the subnucleus. In the more medial part of the nucleus, these labelled fibers branched and gave rise to finer axons with complex bouton-bearing processes. Collator note: Fig 3L-M roughly corresponds to Swanson Atlas Levels 47-51. The terminals fields in PB are organized around the superior cerebellar peduncle. KF is not labeled in this experiment.

Terminal labelling within the parabrachial nucleus arose as a caudal and lateral extension of the fibers coursing through the periaqueductal gray matter and central tegmental fields (see Fig. 7B; see also Fig. 3L,M). In the rostral parabrachial nucleus, a few labelled fibers of fine caliber found in the superior lateral subnucleus exhibited infrequent swellings along their lengths. Within the central lateral subnucleus there was a denser collection of spinelike processes and boutons along the lengths of fine caliber fibers as they coursed laterally from the periaqueductal gray matter. Both medium and fine caliber fibers, observed within the dorsal and external lateral subnuclei, exhibited boutons and varicosities along their lengths. In the ventrolateral parabrachial subnucleus fine caliber fibers were observed, which also demonstrated varicosities along their lengths. In caudal sections through the parabrachial nucleus, labeling within these subnuclei grew denser. Labeled fibers within the medial subnucleus were oriented in a mediolateral direction. These tended to be smooth with occasional swellings along their lengths in the more lateral part of the subnucleus. In the more medial part of the nucleus, these labelled fibers branched and gave rise to finer axons with complex bouton-bearing processes. Collator note: Fig 3L-M roughly corresponds to Swanson Atlas Levels 47-51. The terminals fields in PB are organized around the superior cerebellar peduncle. KF is not labeled in this experiment.

Terminal labelling within the parabrachial nucleus arose as a caudal and lateral extension of the fibers coursing through the periaqueductal gray matter and central tegmental fields (see Fig. 7B; see also Fig. 3L,M). In the rostral parabrachial nucleus, a few labelled fibers of fine caliber found in the superior lateral subnucleus exhibited infrequent swellings along their lengths. Within the central lateral subnucleus there was a denser collection of spinelike processes and boutons along the lengths of fine caliber fibers as they coursed laterally from the periaqueductal gray matter. Both medium and fine caliber fibers, observed within the dorsal and external lateral subnuclei, exhibited boutons and varicosities along their lengths. In the ventrolateral parabrachial subnucleus fine caliber fibers were observed, which also demonstrated varicosities along their lengths. In caudal sections through the parabrachial nucleus, labeling within these subnuclei grew denser. Labeled fibers within the medial subnucleus were oriented in a mediolateral direction. These tended to be smooth with occasional swellings along their lengths in the more lateral part of the subnucleus. In the more medial part of the nucleus, these labelled fibers branched and gave rise to finer axons with complex bouton-bearing processes. Collator note: Fig 3L-M roughly corresponds to Swanson Atlas Levels 47-51. The terminals fields in PB are organized around the superior cerebellar peduncle. KF is not labeled in this experiment.

Terminal labelling within the parabrachial nucleus arose as a caudal and lateral extension of the fibers coursing through the periaqueductal gray matter and central tegmental fields (see Fig. 7B; see also Fig. 3L,M). In the rostral parabrachial nucleus, a few labelled fibers of fine caliber found in the superior lateral subnucleus exhibited infrequent swellings along their lengths. Within the central lateral subnucleus there was a denser collection of spinelike processes and boutons along the lengths of fine caliber fibers as they coursed laterally from the periaqueductal gray matter. Both medium and fine caliber fibers, observed within the dorsal and external lateral subnuclei, exhibited boutons and varicosities along their lengths. In the ventrolateral parabrachial subnucleus fine caliber fibers were observed, which also demonstrated varicosities along their lengths. In caudal sections through the parabrachial nucleus, labeling within these subnuclei grew denser. Labeled fibers within the medial subnucleus were oriented in a mediolateral direction. These tended to be smooth with occasional swellings along their lengths in the more lateral part of the subnucleus. In the more medial part of the nucleus, these labelled fibers branched and gave rise to finer axons with complex bouton-bearing processes. Collator note: Fig 3L-M roughly corresponds to Swanson Atlas Levels 47-51. The terminals fields in PB are organized around the superior cerebellar peduncle. KF is not labeled in this experiment.

Terminal labelling within the parabrachial nucleus arose as a caudal and lateral extension of the fibers coursing through the periaqueductal gray matter and central tegmental fields (see Fig. 7B; see also Fig. 3L,M). In the rostral parabrachial nucleus, a few labelled fibers of fine caliber found in the superior lateral subnucleus exhibited infrequent swellings along their lengths. Within the central lateral subnucleus there was a denser collection of spinelike processes and boutons along the lengths of fine caliber fibers as they coursed laterally from the periaqueductal gray matter. Both medium and fine caliber fibers, observed within the dorsal and external lateral subnuclei, exhibited boutons and varicosities along their lengths. In the ventrolateral parabrachial subnucleus fine caliber fibers were observed, which also demonstrated varicosities along their lengths. In caudal sections through the parabrachial nucleus, labeling within these subnuclei grew denser. Labeled fibers within the medial subnucleus were oriented in a mediolateral direction. These tended to be smooth with occasional swellings along their lengths in the more lateral part of the subnucleus. In the more medial part of the nucleus, these labelled fibers branched and gave rise to finer axons with complex bouton-bearing processes. Collator note: Fig 3L-M roughly corresponds to Swanson Atlas Levels 47-51. The terminals fields in PB are organized around the superior cerebellar peduncle. KF is not labeled in this experiment.

Terminal labelling within the parabrachial nucleus arose as a caudal and lateral extension of the fibers coursing through the periaqueductal gray matter and central tegmental fields (see Fig. 7B; see also Fig. 3L,M). In the rostral parabrachial nucleus, a few labelled fibers of fine caliber found in the superior lateral subnucleus exhibited infrequent swellings along their lengths. Within the central lateral subnucleus there was a denser collection of spinelike processes and boutons along the lengths of fine caliber fibers as they coursed laterally from the periaqueductal gray matter. Both medium and fine caliber fibers, observed within the dorsal and external lateral subnuclei, exhibited boutons and varicosities along their lengths. In the ventrolateral parabrachial subnucleus fine caliber fibers were observed, which also demonstrated varicosities along their lengths. In caudal sections through the parabrachial nucleus, labeling within these subnuclei grew denser. Labeled fibers within the medial subnucleus were oriented in a mediolateral direction. These tended to be smooth with occasional swellings along their lengths in the more lateral part of the subnucleus. In the more medial part of the nucleus, these labelled fibers branched and gave rise to finer axons with complex bouton-bearing processes. Collator note: Fig 3L-M roughly corresponds to Swanson Atlas Levels 47-51. The terminals fields in PB are organized around the superior cerebellar peduncle. KF is not labeled in this experiment.

Labeled fibers within the medial subnucleus were oriented in a mediolateral direction. These tended to be smooth with occasional swellings along their lengths in the more lateral part of the subnucleus. In the more medial part of the nucleus, these labelled fibers branched and gave rise to finer axons with complex bouton-bearing processes. Collator note: Fig 3L-M roughly corresponds to Swanson Atlas Levels 47-51. The terminals fields in PB are organized around the superior cerebellar peduncle. KF is not labeled in this experiment.

Labeled fibers within the medial subnucleus were oriented in a mediolateral direction. These tended to be smooth with occasional swellings along their lengths in the more lateral part of the subnucleus. In the more medial part of the nucleus, these labelled fibers branched and gave rise to finer axons with complex bouton-bearing processes. Collator note: Fig 3L-M roughly corresponds to Swanson Atlas Levels 47-51. The terminals fields in PB are organized around the superior cerebellar peduncle. KF is not labeled in this experiment.

Collator note. The terminal field in PB extends medially into LDT, see Fig 3L, M. Fig 3L-M roughly corresponds to Swanson Atlas Levels 47-51.

Collator note. The terminal field in PB may extend ventrally into PPN, see Fig 3L, M. Fig 3L-M roughly corresponds to Swanson Atlas Levels 47-51.

Other structures in the pontine tegmentum that demonstrated PHA-L containing fibers included the mesencephalic trigeminal nucleus and the locus coeruleus (see Fig. 3M). Only a few medium-size fibers were seen coursing among the large neurons of the mesencephalic trigeminal nucleus, but an occasional varicosity was seen in close proximity to a cell body. Smooth labelled fibers with occasional boutons were present in the dorsal, rostral portion of the locus coeruleus.

Other structures in the pontine tegmentum that demonstrated PHA-L containing fibers included the mesencephalic trigeminal nucleus and the locus coeruleus (see Fig. 3M). Only a few medium-size fibers were seen coursing among the large neurons of the mesencephalic trigeminal nucleus, but an occasional varicosity was seen in close proximity to a cell body. Smooth labelled fibers with occasional boutons were present in the dorsal, rostral portion of the locus coeruleus.

Collator note: see Fig 3L (Swanson Atlas Levels 47-48). Several fibers cross CSM and they appear to leave few terminal fields.

Collator note: see Figure 3N, which roughly corresponds to Swanson Atlas Level 53.

Collator note: MDRNv appears to be crossed by several fibers ventro-dorsally towards the NTS.See Figure 3O-R, which roughly correspond to Swanson Atlas Level 56-70.

Labelled fibers ran dorsally in a position medial to the spinal trigeminal nucleus and innervated the ventrolateral, medial and commissural subdivisions of the nucleus of the solitary tract as well as the dorsal motor vagal nucleus (see Figs. 30-R, 7C,D). In sections through the rostral nucleus of the solitary tract there were numerous medium and fine wavy fibers with many varicosities along their lengths. Labeled fibers were not seen in the rostral nucleus of the solitary tract in experiment R678 in which the injection site was confined to the ILC, indicating that this projection may originate from the prelimbic cortex (see below). In experiment R651, the pattern of fibers seen in the medial subdivision of the nucleus of the solitary tract was similar to the rostral subdivision, with the addition that finel abelled fibers with boutons and swellings swept into the layer of ependymal cells lining the fourth ventricle (Fig. 7D). The ventrolateral portion of the nucleus of the solitary tract was innervated by fibers that appeared to be a continuation of the thick, straight axons of the lateral tegmental pathway. These axons branched profusely giving rise to numerous medium and fine caliber fibers bearing boutons and varicosities along their lengths. The commissural portion of the nucleus of the solitary tract was innervated by a few fine-labelled fibers that had stalk-like processes and boutons along their lengths.

Labelled fibers ran dorsally in a position medial to the spinal trigeminal nucleus and innervated the ventrolateral, medial and commissural subdivisions of the nucleus of the solitary tract as well as the dorsal motor vagal nucleus (see Figs. 30-R, 7C,D). In sections through the rostral nucleus of the solitary tract there were numerous medium and fine wavy fibers with many varicosities along their lengths. Labeled fibers were not seen in the rostral nucleus of the solitary tract in experiment R678 in which the injection site was confined to the ILC, indicating that this projection may originate from the prelimbic cortex (see below). In experiment R651, the pattern of fibers seen in the medial subdivision of the nucleus of the solitary tract was similar to the rostral subdivision, with the addition that finel abelled fibers with boutons and swellings swept into the layer of ependymal cells lining the fourth ventricle (Fig. 7D). The ventrolateral portion of the nucleus of the solitary tract was innervated by fibers that appeared to be a continuation of the thick, straight axons of the lateral tegmental pathway. These axons branched profusely giving rise to numerous medium and fine caliber fibers bearing boutons and varicosities along their lengths. The commissural portion of the nucleus of the solitary tract was innervated by a few fine-labelled fibers that had stalk-like processes and boutons along their lengths.

Labelled fibers ran dorsally in a position medial to the spinal trigeminal nucleus and innervated the ventrolateral, medial and commissural subdivisions of the nucleus of the solitary tract as well as the dorsal motor vagal nucleus (see Figs. 30-R, 7C,D). In sections through the rostral nucleus of the solitary tract there were numerous medium and fine wavy fibers with many varicosities along their lengths. Labeled fibers were not seen in the rostral nucleus of the solitary tract in experiment R678 in which the injection site was confined to the ILC, indicating that this projection may originate from the prelimbic cortex (see below). In experiment R651, the pattern of fibers seen in the medial subdivision of the nucleus of the solitary tract was similar to the rostral subdivision, with the addition that finel abelled fibers with boutons and swellings swept into the layer of ependymal cells lining the fourth ventricle (Fig. 7D). The ventrolateral portion of the nucleus of the solitary tract was innervated by fibers that appeared to be a continuation of the thick, straight axons of the lateral tegmental pathway. These axons branched profusely giving rise to numerous medium and fine caliber fibers bearing boutons and varicosities along their lengths. The commissural portion of the nucleus of the solitary tract was innervated by a few fine-labelled fibers that had stalk-like processes and boutons along their lengths.

Labelled fibers ran dorsally in a position medial to the spinal trigeminal nucleus and innervated the ventrolateral, medial and commissural subdivisions of the nucleus of the solitary tract as well as the dorsal motor vagal nucleus (see Figs. 30-R, 7C,D). In sections through the rostral nucleus of the solitary tract there were numerous medium and fine wavy fibers with many varicosities along their lengths. Labeled fibers were not seen in the rostral nucleus of the solitary tract in experiment R678 in which the injection site was confined to the ILC, indicating that this projection may originate from the prelimbic cortex (see below). In experiment R651, the pattern of fibers seen in the medial subdivision of the nucleus of the solitary tract was similar to the rostral subdivision, with the addition that finel abelled fibers with boutons and swellings swept into the layer of ependymal cells lining the fourth ventricle (Fig. 7D). The ventrolateral portion of the nucleus of the solitary tract was innervated by fibers that appeared to be a continuation of the thick, straight axons of the lateral tegmental pathway. These axons branched profusely giving rise to numerous medium and fine caliber fibers bearing boutons and varicosities along their lengths. The commissural portion of the nucleus of the solitary tract was innervated by a few fine-labelled fibers that had stalk-like processes and boutons along their lengths.

Labelled fibers ran dorsally in a position medial to the spinal trigeminal nucleus and innervated the ventrolateral, medial and commissural subdivisions of the nucleus of the solitary tract as well as the dorsal motor vagal nucleus (see Figs. 30-R, 7C,D). In sections through the rostral nucleus of the solitary tract there were numerous medium and fine wavy fibers with many varicosities along their lengths. Labeled fibers were not seen in the rostral nucleus of the solitary tract in experiment R678 in which the injection site was confined to the ILC, indicating that this projection may originate from the prelimbic cortex (see below). In experiment R651, the pattern of fibers seen in the medial subdivision of the nucleus of the solitary tract was similar to the rostral subdivision, with the addition that finel abelled fibers with boutons and swellings swept into the layer of ependymal cells lining the fourth ventricle (Fig. 7D). The ventrolateral portion of the nucleus of the solitary tract was innervated by fibers that appeared to be a continuation of the thick, straight axons of the lateral tegmental pathway. These axons branched profusely giving rise to numerous medium and fine caliber fibers bearing boutons and varicosities along their lengths. The commissural portion of the nucleus of the solitary tract was innervated by a few fine-labelled fibers that had stalk-like processes and boutons along their lengths.

[...] the dorsal motor vagal nucleus was also innervated by fine caliber fibers that ran along its dorsal surface and gave rise to numerous fine branches which entered the nucleus and exhibited varicosities.

The compact zone of the nucleus ambiguus received a small number of short, fine labelled axons that exhibited swellings and boutons. This innervation appeared to become denser more caudally and extended into the external formation of the nucleus.

The compact zone of the nucleus ambiguus received a small number of short, fine labelled axons that exhibited swellings and boutons. This innervation appeared to become denser more caudally and extended into the external formation of the nucleus.

Collator note: see Fig 3A, which roughly corresponds to Swanson Atlas Level 14. The terminal field is oriented dorso-ventral.

Collator note: see Fig 3A, which roughly corresponds to Swanson Atlas Level 14. The terminal field is oriented dorso-ventral.

Collator note: see Fig 3A, which roughly corresponds to Swanson Atlas Level 14. The terminal field is oriented dorso-ventral. Terminal fields are at least in the rostral part of the SH.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.

Collator note: this connection is considered to be absent, because all of the atlas levels were inspected by authors.