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Figure 11 from: Liu K-K, Luo H-P, Ying Y-H, Xiao Y-X, Xu X, Xiao Y-H (2020) A survey of Phrurolithidae spiders from Jinggang Mountain National Nature Reserve, Jiangxi Province, China. ZooKeys 947: 1-37. https://doi.org/10.3897/zookeys.947.51175
Figure 11 SEM micrographs of Otacilia bijiashanica sp. nov., palp of male paratype A ventral view B same, detail of bulb C dorsal view, detail of tibia apophysis. Scale bars: 0.1 mm. Abbreviations: DTA – dorsal tibial apophysis, E – embolus, FA – femoral apophysis, RTA – retrolateral tibial apophysis, rTA – retrolateral tegular apophysis.
Figure 9 from: Liu K-K, Luo H-P, Ying Y-H, Xiao Y-X, Xu X, Xiao Y-H (2020) A survey of Phrurolithidae spiders from Jinggang Mountain National Nature Reserve, Jiangxi Province, China. ZooKeys 947: 1-37. https://doi.org/10.3897/zookeys.947.51175
Figure 9 Otacilia bijiashanica sp. nov., male holotype A habitus, dorsal view B same, ventral view C palp, prolateral view D same, ventral view E same, retrolateral view F same, dorsal view, slightly retrolateral. Scale bars: 0.5 mm (A, B), 0.1 mm (C–F). Abbreviations: DTA – dorsal tibial apophysis, E – embolus, rTA – retrolateral tegular apophysis, RTA – retrolateral tibial apophysis, SD – sperm duct.
Figure 10 from: Liu K-K, Luo H-P, Ying Y-H, Xiao Y-X, Xu X, Xiao Y-H (2020) A survey of Phrurolithidae spiders from Jinggang Mountain National Nature Reserve, Jiangxi Province, China. ZooKeys 947: 1-37. https://doi.org/10.3897/zookeys.947.51175
Figure 10 Otacilia bijiashanica sp. nov., female paratype A habitus, dorsal view B same, ventral view C epigyne, ventral view D epigyne, dorsal view. Scale bars: 0.5 mm (A, B), 0.1 mm (C, D). Abbreviations: B – bursa, CD – copulatory duct, CO – copulatory opening, CT – connecting tube, FD – fertilisation ducts, GA – glandular appendage, MS – median septum, SP – spermathecae.
Map 2 from: Liu K-K, Luo H-P, Ying Y-H, Xiao Y-X, Xu X, Xiao Y-H (2020) A survey of Phrurolithidae spiders from Jinggang Mountain National Nature Reserve, Jiangxi Province, China. ZooKeys 947: 1-37. https://doi.org/10.3897/zookeys.947.51175
Map 2 Map of China, enlargement showing records of Otacilia acutangula sp. nov., O. bijiashanica sp. nov., O. longtanica sp. nov., O. ovoidea sp. nov., O. shenshanica sp. nov., Otacilia subovoidea sp. nov. and O. xiaoxiica sp. nov. in Jinggang Mountain National Nature Reserve, Jiangxi.
Figure 19 from: Liu K-K, Luo H-P, Ying Y-H, Xiao Y-X, Xu X, Xiao Y-H (2020) A survey of Phrurolithidae spiders from Jinggang Mountain National Nature Reserve, Jiangxi Province, China. ZooKeys 947: 1-37. https://doi.org/10.3897/zookeys.947.51175
Figure 19 Otacilia subovoidea sp. nov., female paratype A habitus, dorsal view B same, ventral view C epigyne, ventral view D epigyne, dorsal view. Scale bars: 0.5 mm (A, B), 0.1 mm (C, D). Abbreviations: B – bursa, CD – copulatory duct, CO – copulatory opening, CT – connecting tube, FD – fertilisation ducts, GA – glandular appendage, MS – median septum, SP – spermathecae.
Figure 6 from: Liu K-K, Luo H-P, Ying Y-H, Xiao Y-X, Xu X, Xiao Y-H (2020) A survey of Phrurolithidae spiders from Jinggang Mountain National Nature Reserve, Jiangxi Province, China. ZooKeys 947: 1-37. https://doi.org/10.3897/zookeys.947.51175
Figure 6 SEM micrographs of Alboculus zhejiangensis (Song & Kim, 1991) comb. nov., male palp A ventral view, showing detail of retrolateral tibial apophysis B same, ventro-retrolateral view C same, detail showing embolus and distal tegular apophysis D same, detail showing retrolateral tibial apophysis E palpal femur, prolateral view F same, retrolateral view. Scale bars: 0.1 mm (A, B, E), 10 µm (C, D), 20 µm (F). Abbreviations: dTA – distal tegular apophysis, E – embolus, FA – femoral apophysis, RTA – retrolateral tibial apophysis.
Figure 17 from: Liu K-K, Luo H-P, Ying Y-H, Xiao Y-X, Xu X, Xiao Y-H (2020) A survey of Phrurolithidae spiders from Jinggang Mountain National Nature Reserve, Jiangxi Province, China. ZooKeys 947: 1-37. https://doi.org/10.3897/zookeys.947.51175
Figure 17 SEM micrographs of Otacilia shenshanica sp. nov., palp of male paratype A proventral view B same, detail showing embolus C retrolateral view D same, detail of conductor, embolus and tegular apophysis. Scale bars: 0.1 mm (A, C), 20 µm (B, D). Abbreviations: dTA – distal tegular apophysis, E – embolus, FA – femoral apophysis , RTA – retrolateral tibial apophysis, rTA – retrolateral tegular apophysis.
Figure 8 from: Liu K-K, Luo H-P, Ying Y-H, Xiao Y-X, Xu X, Xiao Y-H (2020) A survey of Phrurolithidae spiders from Jinggang Mountain National Nature Reserve, Jiangxi Province, China. ZooKeys 947: 1-37. https://doi.org/10.3897/zookeys.947.51175
Figure 8 Otacilia acutangula sp. nov., female paratype A habitus, dorsal view B same, ventral view C epigyne, ventral view D epigyne, dorsal view. Scale bars: 0.5 mm (A, B), 0.1 mm (C, D). Abbreviations: B – bursa, CD – copulatory duct, CO – copulatory opening, CT – connecting tube, FD – fertilisation ducts, GA – glandular appendage, MS – median septum, SP – spermathecae.
Figure 5 from: Liu K-K, Luo H-P, Ying Y-H, Xiao Y-X, Xu X, Xiao Y-H (2020) A survey of Phrurolithidae spiders from Jinggang Mountain National Nature Reserve, Jiangxi Province, China. ZooKeys 947: 1-37. https://doi.org/10.3897/zookeys.947.51175
Figure 5 SEM micrographs of Alboculus zhejiangensis (Song & Kim, 1991) comb. nov., male legs A right leg I, prolateral view B same, tarsus, prolateral view C same, tarsal slit sensillum, prolateral view D same, tarsal claw and claw tuft setae, prolateral view E left leg IV, prolateral view F same, metatarsus, white arrow shows the long trichobothrium, prolateral view G same, metatarsus-tarsus joint, prolateral view H same, tarsus, prolateral view I same, tarsal claw and claw tuft setae, prolateral view J right tarsal claw I and claw tuft setae, retrolateral view K left tarsus IV, detail of tarsal organ, dorsal view J left tarsal claw IV and claw tuft setae, dorsal view. Abbreviations: LO – lyriform organ, MTS – metatarsal stopper, TO – tarsal organ.
Figure 16 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 16. Distribution map: Phanerotoma bushblitz sp. nov., black diamond; Phanerotoma lutea sp. nov., grey square; Phanerotoma witchelinaensis sp. nov., black square; Phanerotoma nigriscapulata sp. nov., grey circle; Phanerotoma bonbonensis sp. nov., black circle.
Figure 14 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 14. Phanerotoma witchelinaensis sp. nov.: (a) habitus lateral, scale line = 1 mm; (b) head dorsal, scale line = 0.5 mm; (c) head, anterior, scale line = 0.5 mm; (d) metasoma dorsal, scale line = 1 mm; all holotype.
Figure 12 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 12. Phanerotoma lutea sp. nov.: (a) habitus, lateral, holotype, scale line = 1 mm; (b) head anterior, holotype, scale line = 0.5 mm; (c) metasoma, dorsal, paratype, scale line = 1 mm; (d) fore wing, other material, scale line = 1 mm.
Figure 7 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 7. Ascogaster rubriscapa sp. nov.: (a) habitus, lateral, holotype, scale line = 1 mm; (b) mesosoma, dorsal, holotype, scale line = 1 mm; (c) metasoma, dorsal, holotype, scale line = 1 mm; (d) head, anterior view, holotype, scale line = 0.5 mm; (e) fore wing, holotype, scale line = 1 mm.
Figure 11. Phanerotoma decticauda Zettel, 1988a in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 11. Phanerotoma decticauda Zettel, 1988a: (a) habitus, lateral, other material, scale line = 1 mm; (b) mesosoma and metasoma, dorsal, other material, scale line = 1 mm; (c) fore wing, other material, scale line = 1 mm; (d) head, anterior view, other material, scale line = 0.5 mm; (e) head, dorsal, other material, scale line = 0.5 mm.
Figure 9 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 9. Phanerotoma bonbonensis sp. nov.: (a) habitus, lateral, paratype, scale line = 1 mm; (b) head, anterior view, holotype, scale line = 0.5 mm; (c) head, dorsal, holotype, scale line = 0.5 mm; (d) metasoma, dorsal, paratype, scale line = 1 mm, indent arrowed; (e) fore wing, paratype, scale line = 1 mm.
Figure 5 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 5. Ascogaster ferruginegaster sp. nov.: (a) habitus, lateral, holotype, scale line = 1 mm; (b) head, anterior, holotype, scale line = 0.5 mm; (c) head, dorsal, holotype, scale line = 1 mm; (d) mesosoma dorsal, holotype, scale line = 1 mm; (e) fore wing, holotype, scale line = 1 mm.
Figure 1 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 1. Map of the bioregions of Australia, showing the arid zone and the location of the three surveyed national reserves: Bon Bon Station, Hiltaba Station and Witchelina Station. The bioregions are based on the Interim Biogeographical Regionalisation for Australia (2012) version 7 classification by the Australian government.
Data from: Provision of care for chronic kidney disease by non-nephrologists in a developing nation: a national survey
Objectives The prevalence of chronic kidney disease (CKD) in developing countries has increased dramatically. This study aimed to explore the practice patterns of non-dialysis-dependent CKD care in an affluent developing country. Settings Primary and specialised healthcare facilities of public and private sectors in the United Arab Emirates. Participants 159 non-nephrologist physicians practising in the United Arab Emirates. Interventions A 28-item online self-administered questionnaire based on CKD clinical practice guidelines. Primary and secondary outcome measures The physicians' approach to identifying and managing patients with CKD. Results The survey was completed by 159 non-nephrologists, of whom 135 reported having treated patients with CKD. Almost all the respondents screen patients with hypertension and diabetes for CKD, but one-third of them do not screen patients with cardiovascular disease and elderly patients for CKD. The use of accurate CKD screening tests (estimated glomerular filtration rate and albumin/creatinine ratio) was suboptimal (77% and 59% of physicians used the procedures, respectively). One-third of the physicians do not offer treatment with inhibitors of the renin–angiotensin system to patients with CKD, and only 66% offer antilipid treatment. In general, the primary healthcare physicians are more familiar than secondary healthcare physicians with the diagnosis and management of patients with CKD. Conclusions We identified substantial physician-declared deficiencies in the practice of identifying and managing early CKD. Integration of quality CKD care within the healthcare system is required to face the increasing burden of CKD in the United Arab Emirates and possibly in other developing nations.
Data from: A nation-wide survey of neonicotinoid insecticides in agricultural land with implications for agri-environment schemes
1. Neonicotinoids are the most widely used class of insecticides globally. However, the link between farming practices and the extent of contamination of soils and crops by neonicotinoid insecticides, as well as and the extent of such contamination in organic fields and ecological focus areas (EFAs) are currently unclear. 2. We measured the concentrations of five neonicotinoid insecticides (imidacloprid, clothianidin, thiamethoxam, thiacloprid, acetamiprid) in 702 soil and plant samples in 169 cultivated fields and EFAs from 62 conventional, integrated production and organic farms distributed over the entire lowland of Switzerland. 3. We detected neonicotinoids in 93% of organic soils and crops, and more than 80% of EFA soils and plants – two types of arable land supposedly free of insecticides. We also tested 16 samples of organic seeds, of which 14 were positive for neonicotinoids. 4. Finally, we calculated hazard quotients (HQs) and potentially affected fractions for 72 beneficial and 12 pest species. Under a field-realistic scenario, we found that between 5.3 and 8.6% of above-ground invertebrate species may be exposed to lethal concentrations of clothianidin, and 31.6 to 41.2% to sublethal concentrations, in "integrated production" and conventional fields. We also found that 1.3 to 6.8% (up to 12.5% based on HQs) of the beneficial invertebrate species may be exposed to sublethal concentrations of neonicotinoids in EFAs and organic fields. In contrast, no pest species would be exposed to lethal concentrations, even under a worst-case scenario. 5. Synthesis and applications. Our study suggests that diffuse contamination by neonicotinoids may harm a significant fraction of non-target beneficial species. The use of neonicotinoids on crops may threaten biodiversity in refuge areas, while also potentially jeopardizing the practice of organic farming by impeding the biological control of pests. Based on our results, we call for a reduction in the dispersion and overuse of neonicotinoid insecticides in order to prevent any detrimental effects on biodiversity and ecosystem services associated with agroecosystems.
Data from: Gynaecological cancer follow-up: national survey of current practice in the UK
Objective: To establish a baseline of national practice for follow-up after treatment for gynaecological cancer. Design: Questionnaire survey. Setting: Gynaecological cancer centres and units. Geographical location: UK Participants: Members of the British Gynaecological Cancer Society and the National Forum of Gynaecological Oncology Nurses. Interventions: A questionnaire survey. Outcome measures: To determine schedules of follow-up, who provides it and what routine testing is used for patients who have had previous gynaecological cancer. Results: A total of 117 responses were obtained; 115 (98%) reported hospital scheduled regular follow-up appointments. Two involved General Practitioners. Follow-up was augmented or replaced by telephone follow-up in 29 (25%) and patient initiated appointments in 38 responses (32%). A total of 80 (68%) cancer specialists also offered combined follow-up clinics with other specialties. Clinical examinations for hospital based follow-up were mainly performed by doctors (67% for scheduled regular appointments and 63% for patient initiated appointments) while telephone follow-up care was provided in the majority by nurses (76%). Most respondents provided routine tests (76/117 (65%)), from which 66/76 (87%) reported carrying out surveillance tests for ovarian cancer, 35/76 (46%) for cervical cancer, 8/76 (11%) for vulval cancer and 7/76 (9%) for endometrial cancer. Usually patients were discharged after five years (82/117 (70%)), whereas three (3%) were discharged after four years, nine (8%) after three and one (1%) after two years. Conclusions: Practice varied but most used a standard hospital based protocol of appointments for five years and routine tests were performed usually for women with ovarian cancer. A minority utilised nurse-led or telephone follow-up. General Practitioners were rarely involved in routine care. A randomised study comparing various models of follow-up could be considered.
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OpenNeuro
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