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Fig. 5 in Infestation and seasonal fluctuation of chigger mites on the Southeast Asian house rat (Rattus brunneusculus) in southern Yunnan Province, China

Fig. 5. Seasonal fluctuation of infestations of the Southeast Asian house rat (R. brunneusculus) with Walchia (W.) turmalis at Jingha, southern Yunnan of China (April 2016–March 2017).

Fig. 1 in Infestation and seasonal fluctuation of chigger mites on the Southeast Asian house rat (Rattus brunneusculus) in southern Yunnan Province, China

Fig. 1. Seasonal fluctuation of overall infestations of the Southeast Asian house rat (R. brunneusculus) with chiggers at Jingha village in southern Yunnan of China (April 2016–March 2017).

Fig. 4 in Infestation and seasonal fluctuation of chigger mites on the Southeast Asian house rat (Rattus brunneusculus) in southern Yunnan Province, China

Fig. 4. Seasonal fluctuation of infestations of the Southeast Asian house rat (R. brunneusculus) with Leptotrombidium (L.) deliense at Jingha, southern Yunnan of China (April 2016–March 2017).

Fig. 6 in Infestation and seasonal fluctuation of chigger mites on the Southeast Asian house rat (Rattus brunneusculus) in southern Yunnan Province, China

Fig. 6. Seasonal fluctuation of infestations of the Southeast Asian house rat (R. brunneusculus) with Leptotrombidium (L.) scutellare at Jingha, southern Yunnan of China (April 2016–March 2017).

Fig. 3 in Infestation and seasonal fluctuation of chigger mites on the Southeast Asian house rat (Rattus brunneusculus) in southern Yunnan Province, China

Fig. 3. Seasonal fluctuation of infestations of the Southeast Asian house rat (R. brunneusculus) with Ascoschoengastia indica at Jingha, southern Yunnan of China (April 2016–March 2017).

Figure 4. Haplotype network for Rattus rattus Complex II in Expanding Population Edge Craniometrics and Genetics Provide Insights into Dispersal of Commensal Rats through Nusa Tenggara, Indonesia

Figure 4. Haplotype network for Rattus rattus Complex II. The Nusa Tenggara samples are illustrated on the right of the network.

Figure 3. Haplotype networks for Rattus exulans, R in Expanding Population Edge Craniometrics and Genetics Provide Insights into Dispersal of Commensal Rats through Nusa Tenggara, Indonesia

Figure 3. Haplotype networks for Rattus exulans, R. argentiventer, and Rattus rattus Complex LIV. Sunda refers to the islands of Borneo, Java, and Sumatra; the Indonesian sample (brown) lacks further collection information.

Figure 6 in Odorants Differentiate Australian Rattus with Increased Complexity in Sympatry

Figure 6. Variation in chemical complexity of preputial gland extracts among four subspecies of Rattus fuscipes and R. leucopus based on 80 quantitated compounds. (A) Box and whisker plots of the number of chemical compounds detected in each subspecies. (B) Box and whisker plots of the total abundance of chemical compounds detected in each subspecies. In both, asterisks above pairwise comparisons of conspecific subspecies indicate significantly higher values (p <0.01) with a one-way Mann-Whitney U Test for all sympatric to allopatric comparisons.

Figure 5 in Odorants Differentiate Australian Rattus with Increased Complexity in Sympatry

Figure 5. Variation in chemical composition of preputial glands among four subspecies of Rattus fuscipes and R. leucopus. (A) Twodimensional representation of chemical composition among individuals based on non-metric multidimensional scaling of all 80 quantitated compounds showing separation of species and subspecies (grey polygons represent grouping of samples using convex hulls). (B) Anosim plot of total compounds showing greater variation between than within species and among than within subspecies. (C) Two-dimensional representation of chemical composition among individuals based on non-metric multidimensional scaling using subset of thiazoline, carboxylic acid, and sesquiterpene compounds showing separation of species and subspecies (grey polygons represent grouping of samples using convex hulls). (D) Anosim plot of subset of compounds showing greater variation between than within species and among than within subspecies.

Figure 4. Representative ion m in Odorants Differentiate Australian Rattus with Increased Complexity in Sympatry

Figure 4. Representative ion m/z 60 trace with post-run selected ion chromatograms for thiazolines and carboxylic acids from preputial gland extracts of (A) Rattus fuscipes assimilis (QMJM 19152); (B) R. fuscipes coracius QMJM 19100; (C) R. leucopus cooktownensis QMJM 19131; and (D) R. leucopus leucopus QMJM 19060. Numbers above peaks identify specific compounds: (1) 2-methylthiazoline, 10.56 min; (2) 2-ethylthiazoline, 16.04 min; (3) 2-isopropylthiazoline, 19.59 min; (4) 2-propylthiazoline, 22.49 min; (5) 2-sec-butylthiazoline (SBT), 25.89 min; (6) 2-isobutylthiazoline, 26.10 min; (7) 2-butylthiazoline, 29.85 min; (8) dodecanoic acid, 56.28 min; (9) tetradecanoic acid, 67.25 min; (10) pentadecanoic acid, 72.34 min; and (11) hexadecanoic acid, 77.50 min.

Figure 3 in Odorants Differentiate Australian Rattus with Increased Complexity in Sympatry

Figure 3. Chemical structures of seven thiazoline compounds identified from preputial glands of Rattus

Figure 1 in Odorants Differentiate Australian Rattus with Increased Complexity in Sympatry

Figure 1. Map of sample localities across Queensland with select cities and towns indicated with stars. Preputial

Figure 2 in Odorants Differentiate Australian Rattus with Increased Complexity in Sympatry

Figure 2. STRUCTURE plot of allozyme variation among four subspecies of Australian Rattus. Each of the 166 samples analysed in this study (13 Rfa, 67 Rfc, 65 Rlc, 21 Rll) is represented by a vertical bar shaded based on the likelihood of assignment to one of four populations. Individual samples are not distinguishable where they share a high likelihood of assignment to the same population (e.g., all Rfa samples). Plot demonstrates lack of gene flow between species in sympatry (Rfc and Rlc) with no mixed likelihood between species. Limited gene flow (or shared polymorphism) among subspecies, Rlc and Rll, are evident in bars with mixed shading.