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Fig. 34 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 34. Gollumjapyx smeagol Sendra & Ortuño, 2006, photo and drawing modified from Sendra et al. (2006). Measurements correspond to those listed in Table 2.
Fig. 18 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 18. Opisthjapyx naledi Sendra & Sánchez-García sp. nov., holotype, ♀ (ISAM). A. Head, ventral side and pro-prosternum (pr-prt) with spine (sp). B. Pro-prosternum (pr-prt) with spine (sp), prosternum (pr-st), meso-poststernum (ms-pst) and meso-intersternum (ms-ist). C. Mesosternum (ms-st), metapoststernum, and meta-intersternum. D. Meta-poststernum, meta-intersternum, and metasternum (mt-st).
Fig. 17 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 17. Opisthjapyx naledi Sendra & Sánchez-García sp. nov., holotype, ♀ (ISAM). A. Head, dorsal side. B. Pronotum. C. Mesonotum. D. Metanotum.
Fig. 13 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 13. Imazighenjapyx marocanus Sendra & Sánchez-García gen. et sp. nov., holotype, ♀ (MHNM). A. Terminal part of abdominal segment X and cerci in dorsal view. B. Tip of right cercus. C. Medial part of inner side of right cercus. D. Proximal to medial part of inner side of right cercus.
Fig. 16 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 16. Opisthjapyx naledi Sendra & Sánchez-García sp. nov., holotype, ♀ (ISAM). A. Detail of placoid sensilla on distal antennomere. B. Distal antennomeres. C. Proximal antennomeres, arrows indicate the position of some trichobothria.
Fig. 12 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 12. Imazighenjapyx marocanus Sendra & Sánchez-García gen. et sp. nov., holotype, ♀ (MHNM). A. Abdominal segment X, dorsal view. B. Detail of abdominal segment X, dorsal view. C. Lateral view of abdominal segment X and cerci. D. Abdominal segment X, ventral view.
Fig. 11 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 11. Imazighenjapyx marocanus Sendra & Sánchez-García gen. et sp. nov., holotype, ♀ (MHNM). A. Lateral posterior part of first urosternite. B. Median glandular organ. Abbreviations: GS = glandular setae; Ps = pseudospores; St = stylus.
Fig. 14 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 14. Imazighenjapyx marocanus Sendra & Sánchez-García gen. et sp. nov., holotype, ♀ (MHNM). A. Cerci, ventral view. B. Detail of right cercus in ventro-lateral view. C. Right cercus, ventral view. D. Leaft cercus, ventral view.
Fig. 19 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 19. Opisthjapyx naledi Sendra & Sánchez-García sp. nov., holotype, ♀ (ISAM). A. Urotergite I. B. Urotergite II. C. Urotergite VII. D. Urotergite VIII.
Fig. 9 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 9. Imazighenjapyx marocanus Sendra & Sánchez-García gen. et sp. nov., holotype, ♀ (MHNM). A. Dorsal side of head and anterior part of pronotum. B. Pronotum and anterior part of mesonotum. C. Mesonotum. D. Metanotum. E. Urotergites I and II. F. Urotergites VII and VIII.
Fig. 8 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 8. Imazighenjapyx marocanus Sendra & Sánchez-García gen. et sp. nov., holotype, ♀ (MHNM). A. Antennae.B. Central antennomeres. C. Apical antennomere.D. Lateral side of the apical antennomere. E. Detail of apical antennomere. F. Detail of antennal micro-barbed sM setae.
Fig. 5 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 5. Austrjapyx wynbergensis Sendra & Sánchez-García sp. nov., 2-paratype, ♀ (AS). A. Lateral organ of urosternite I in B. B. Urosternite I. C. Detail lateral organ of the first urosternite. D. Micropores in posterior part of urosternite I. E. Urosternite II. F. Abdominal segments VII‒X in latero-ventral view.
Fig. 7 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 7. Location and habitat of Austrjapyx wynbergensis Sendra & Sánchez-García sp. nov. A. External area at the Table Mountains in the surroundings of the Wynberg cave. B. Wynberg cave interior, general appearance. C. Living specimen of Austrjapyx wynbergensis.
Fig. 4 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 4. Austrjapyx wynbergensis Sendra & Sánchez-García sp. nov., holotype, ♀ (ISAM). A. Urotergites V and VI. B. Urotergites VII‒IX.
Fig. 6 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 6. Austrjapyx wynbergensis Sendra & Sánchez-García sp. nov., holotype, ♀ (ISAM). A. Abdominal segments IX and X in dorsal view. B. Cerci, dorsal view. C. Abdominal segments VIII‒X in lateroventral view. D. Cerci, ventral view.
Fig. 1 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 1. Austrjapyx wynbergensis Sendra & Sánchez-García sp. nov., holotype, ♀ (ISAM). A. Dorsal habitus. B. Head and pronotum in dorsal view. C. Mesonotum. D. End of metatarsus and claws. E. Metanotum and first urotergite.
Fig. 3 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 3. Austrjapyx wynbergensis Sendra & Sánchez-García sp. nov., ♀ (AS). A. Head in ventro-lateral view. B. Pro-prosternum (pr-prt) with spine (sp) and prosternum (pr-st). C. Meso-poststernum (mspst), meso-intersternum (ms-ist) and mesosternum (ms-st). D. Metasternum (mt-st). E. Lateral view of metathoracic leg. F. Detail of metathoracic tarsus and claws.
Fig. 2 in Life in darkness: an overview of cave-adapted japygids (Hexapoda, Diplura)
Fig. 2. Austrjapyx wynbergensis Sendra & Sánchez-García sp. nov., holotype, ♀ (ISAM). Distal antennomere. See terminology in the text.
Supplemental Material: Study of radiation protection for the BELLA A-Cave
<p><strong>General description</strong></p> <p>Compressed archive containing the macro files and the scripts to run and analyze the results of the simulations of dose deposition in the BELLA A-Cave.</p> <p>The Geant4 scripts contain the parameters of the initial beam and of the computational mesh where the dose equivalent is deposited, the python scripts extract the data from the resulting OpenPMD files.</p> <p>The scripts include two possible configurations of shielding (Configuration 1 and Configuration 2) and the two initial beams investigated: a "realistic" distribution and an idealized 8 MeV monochromatic beam that represent the maximum point operationally achievable.</p> <p><strong>Configurations</strong></p> <p><em>Configuration 1:</em><strong> </strong></p> <p>It includes the following permanent shielding</p> <ul> <li><strong>Wall</strong>: the Cave A concrete walls, along with wall penetrations towards Cave B. All walls of Cave A are made of 36” thick concrete, except for the roof, the east wall and the entrance compartment walls which have a thickness of 24”. The penetrations for the beamline (from 1 to 3) and penetrations for the services (service penetrations in north, south, and east walls) are included in the simulations.</li> <li><strong>Pb1</strong> and <strong>Pb2</strong>: 8” thick Pb shielding filling the two wall penetrations towards Cave B which are closest to the Cave A interaction chamber.</li> <li><strong>Pb3</strong>: A Pb plate (10” width, 10” height, 1” thickness) positioned at the exit of the interaction chamber, perpendicular to the beam axis. The plate has a square hole (4 cm side) centered at the position of the electron beam axis. </li> <li><strong>Pb4</strong>: A Pb plate (20” width, 20” height, 1” thickness) placed at the west wall of Cave A, centered at the position of the electron beam axis.</li> <li><strong>SS1</strong> and <strong>SS2</strong>: stainless steel plates (2” thickness, 6” width, 2’ height) placed on both sides of the east wall, near the edges of penetration 3. The plates cover 3” of the window and 3” of the wall on both sides. The height of the plates is equal to the height of the opening.</li> </ul> <p><em>Configuration 2:</em></p> <p>In addition to the permanent shielding from Configuration 1, a tungsten (W) X-ray converter (0.5” width, 0.5” height, 2 mm thickness) is placed 3 cm downstream from the electron beam source. A 1”-wide and 4 cm long Pb shielding around the converter is considered.</p> <p><strong>Description of the archive</strong></p> <p>The archive is structure as follows</p> <pre><code class="language-bash">inputs_and_macros ├── Configuration_1__8MeV │ ├── input.mac │ ├── plot_dose_1_100_mrem_per_hour.py │ └── print_dose_values.py ├── Configuration_1__exp_distribution │ ├── input.mac │ ├── khz_energy.dat │ ├── plot_dose_1_100_mrem_per_hour.py │ └── print_dose_values.py ├── Configuration_2__8MeV │ ├── input.mac │ ├── plot_dose_1_100_mrem_per_hour.py │ └── print_dose_values.py └── Configuration_2__exp_distribution ├── input.mac ├── khz_energy.dat ├── plot_dose_1_100_mrem_per_hour.py └── print_dose_values.py</code></pre>
From darkness to twilight: Morphological divergence between cave and surface-subterranean ecotone Niphargus species
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