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Watts, Aspen; Engels, Stefan; Martín-Puertas, Celia; Bennion, Helen (2026): Low-resolution chironomid records from 8 lakes from the Lake District (England) and Scotland [dataset]. PANGAEA, https://doi.pangaea.de/10.1594/PANGAEA.988974 (DOI registration in progress)

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Published: 2026-02-25

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Abstract:
This dataset provides palaeoecological data for 8 sites across the Lake District (England) and Scotland. Chironomid counts are presented against depth (cm), composite depth (cm), and age (year CE). The data provides information on the changes in the lake ecosystem, and has been used to identify the effects of external drivers on biodiversity parameters (alpha and beta diversity). The lakes were selected based on the identification of, insofar as possible, a single driver acting on the lakes, based on their known histories and existing palaeoecological studies. Existing cores were used where available, for direct comparison with existing (primarily diatom) data. Additional cores were taken in 2024 from the sites where access was possible to extend the record of observation to the present. Butterstone Loch was cored in 1998 as part of an investigation into Scottish freshwater Lochs (Bennion et al., 2004; doi:10.1111/j.1365-2664.2004.00874.x). Derwent Water, Esthwaite Water, Grasmere, and Rydal Water, in the Lake District, England, and Bishop Loch, Loch Libo, and Woodend Loch, in Scotland were cored in 2016 as part of the Hydroscape project (Willby et al., 2019). These cores were collected using a combination of Tapper (Chambers & Camerson, 2001; doi:10.1023/A:1008181406301), HON-Kajak (Renberg, 1991; doi:10.1007/BF00153740), and Big Ben (Patmore et al., 2014; doi:10.1007/s10933-013-9756-0) corers. The sampling strategy for these cores was as follows: (a) a sample taken from the deepest part of the record; (b) an approximate midpoint sample; and (c) continuous 1-cm-thick samples taken between 0-3 cm core depth. This sampling strategy was modified when insufficient material was available. Additional samples were taken from periods of interest, e.g. Esthwaite Water was sampled at 20 cm and 14.5 cm to capture the opening of the Sewage Treatment Works (1973 CE) and the modification of the filtering process (1986 CE), respectively. Additional cores were collected in April 2024 from Butterstone Loch, Derwent Water, Grasmere, and Loch Libo, using gravity corers (Boyle, 1995, doi:10.1007/BF00678113). The 2024 cores were combined with the existing 1998 and 2016 cores, to create continuous profiles covering the past few centuries and up to the present day. Depth was adjusted based on sedimentation rate to create composite depth (cm) profiles. The 2024 cores were sampled at the surface (0-1 cm core depth). Three additional samples were taken from the BUTT24 core (3.5 cm, 6.5 cm, 9.5 cm) due to the longer interval since initial sampling in 1998 CE. A total of 49 samples from the combined sediment sequences were treated with warm KOH (10%) to de-flocculate the material, and subsequently rinsed over a 100 µm mesh. Chironomid head capsules (HCs) were picked from the residue using a Bogorov sorting tray. HCs were mounted on microscope slides using Euparal mounting medium. HCs were identified using Brooks et al. (2007; doi:10.1007/s10933-007-9191-1). Cricotopus (Isocladius) intersectus-type and Cricotopus (Isocladius) laricomalis-type were combined into a single group (C. intersectus-type sensu lato (s.l.)), due to their similarity in appearance and ecological role (Brooks et al., 2007; doi:10.1007/s10933-007-9191-1). Where appropriate, datasets were processed through amalgamation of consecutive samples in order to e.g. ensure high count sums.
Keyword(s):
Anthropogenic impact; Chironomids; External drivers; Holocene; Insect loss; UK
Related to:
Watts, Aspen (2025): Disentangling the drivers of Insect Armageddon: determining the impact of anthropogenic disturbances on midge diversity [dissertation]. Birkbeck, University of London
References:
Bennion, Helen; Fluin, Jennie; Simpson, Gavin L (2004): Assessing eutrophication and reference conditions for Scottish freshwater lochs using subfossil diatoms. Journal of Applied Ecology, 41(1), 124-138, https://doi.org/10.1111/j.1365-2664.2004.00874.x
Boyle, J F (1995): A simple closure mechanism for a compact, large-diameter, gravity corer. Journal of Paleolimnology, 13(1), 85-87, https://doi.org/10.1007/BF00678113
Brooks, Stephen J; Langdon, Pete G; Heiri, Oliver (2008): The Identification and Use of Palaearctic Chironomidae Larvae in Palaeoecology. In: Brodersen, Klaus Peter (Ed.), Technical Guide No. 10, Quaternary Research Association, London,, Journal of Paleolimnology, 40(2), 751-753, https://doi.org/10.1007/s10933-007-9191-1
Chambers, J W; Cameron, Nigel G (2001): A rod-less piston corer for lake sediments; an improved, rope-operated percussion corer. Journal of Paleolimnology, 25(1), 117-122, https://doi.org/10.1023/A:1008181406301
Glew, John R (1991): Miniature gravity corer for recovering short sediment cores. Journal of Paleolimnology, 5(3), https://doi.org/10.1007/BF00200351
Patmore, Ian R; Sayer, Carl D; Goldsmith, Ben; Davidson, Thomas A; Rawcliffe, Ruth; Salgado, Jorge (2014): Big Ben: a new wide-bore piston corer for multi-proxy palaeolimnology. Journal of Paleolimnology, 51(1), 79-86, https://doi.org/10.1007/s10933-013-9756-0
Renberg, I (1991): The HON-Kajak sediment corer. Journal of Paleolimnology, 6(2), 167-170, https://doi.org/10.1007/BF00153740
Willby, N; Law, A; Pattison, Z (2019): Sediment core data from the NERC Hydroscape lakes; The Lakes District, Greater Glasgow, and Norfolk Broads [dataset].
Funding:
Natural Environment Research Council (NERC), grant/award no. NE/N005953/1: Hydroscape: connectivity x stressor interactions in freshwater habitats
Coverage:
Median Latitude: 55.276584 * Median Longitude: -3.546459 * South-bound Latitude: 54.360700 * West-bound Longitude: -4.497770 * North-bound Latitude: 56.590750 * East-bound Longitude: -2.983840
Date/Time Start: 1996-02-08T09:00:00 * Date/Time End: 2024-04-19T13:00:00
Minimum DEPTH, sediment/rock: -0.0610 m * Maximum DEPTH, sediment/rock: 0.7050 m
Event(s):
BUTT3 * Latitude: 56.590750 * Longitude: -3.533880 * Date/Time Start: 1996-02-08T09:00:00 * Date/Time End: 1996-02-08T18:00:00 * Elevation: 95.0 m * Lake water depth: 6.5m * Method/Device: Gravity corer (GC) * Comment: Lake sediment sequence retrieved from Butterstone Loch using a gravity corer (Boyle, 1995) deployed from boat. 71 cm core collected. Glew gravity corer, according to Glew (1991)
BUTT24 * Latitude: 56.587380 * Longitude: -3.533690 * Date/Time Start: 2024-04-19T10:00:00 * Date/Time End: 2024-04-19T13:00:00 * Elevation: 95.0 m * Lake water depth: 4.6 m * Method/Device: Gravity corer (GC) * Comment: Lake sediment sequence retrieved from Butterstone Loch using a gravity corer (Boyle, 1995) deployed from boat. 22 cm core collected. Gravity corer, according to Boyle (1995)
CZNS66 * Latitude: 55.877000 * Longitude: -4.098380 * Date/Time Start: 2016-06-28T09:00:00 * Date/Time End: 2016-06-28T19:00:00 * Elevation: 78.2 m * Lake water depth: 1.2 m * Method/Device: Core (CORE) * Comment: Lake sediment sequence retrieved from Bishop Loch using a Big Ben corer deployed from a raft. 45 cm CZNS66 core collected. Big Ben corer, according to Patmore et al. (2014)
Parameter(s):
#NameShort NameUnitPrincipal InvestigatorMethod/DeviceComment
1Event labelEventWatts, Aspen
2Latitude of eventLatitudeWatts, Aspen
3Longitude of eventLongitudeWatts, Aspen
4Date/Time of eventDate/TimeWatts, Aspen
5Date/Time of event 2Date/Time 2Watts, Aspen
6Elevation of eventElevationmWatts, Aspen
7Comment of eventCommentWatts, Aspen
8SectionSectWatts, Aspen
9DEPTH, sediment/rockDepth sedmWatts, AspenGeocode
10Depth, compositeDepth compmcdWatts, Aspen
11AgeAgea AD/CEWatts, Aspen
12AGEAgeka BPWatts, AspenGeocode
13Chironomus anthracinus-typeC. anthracinus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
14Chironomus plumosus-typeC. plumosus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
15Chironomini larvulaChironomini larvula#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
16Cladopelma lateralis-typeC. lateralis-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
17CryptochironomusCryptochironomus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
18DemicryptochironomusDemicryptochironomus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
19Dicrotendipes nervosus-typeD. nervosus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
20Einfeldia dissidens-typeE. dissidens-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
21Einfeldia pagana-typeE. pagana-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
22Endochironomus albipennis-typeE. albipennis-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
23Endochironomus impar-typeE. impar-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
24GallotiaGallotia#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
25Glyptotendipes barbipes-typeG. barbipes-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
26Glyptotendipes pallens-typeG. pallens-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
27HarnischiaHarnischia#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
28HeterotanytarsusHeterotanytarsus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
29LauterborniellaLauterborniella#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
30LipiniellaLipiniella#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
31Microtendipes pedellus-typeM. pedellus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
32PagastiellaPagastiella#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
33Paratendipes nudisquama-typeP. nudisquama-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
34Parachironomus varus-typeP. varus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
35Phaenopsectra flavipesP. flavipes#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
36Polypedilum nubeculosum-typeP. nubeculosum-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
37Polypedilum nubiferP. nubifer#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
38Polypedilum sordens-typeP. sordens-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
39Sergentia coracinaS. coracina#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
40StictochironomusStictochironomus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
41TribelosTribelos#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
42XenochironomusXenochironomus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
43ProtanypusProtanypus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
44AbiskomyiaAbiskomyia#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
45Chaetocladius-type BChaetocladius-T B#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
46Chaetocladius piger-typeC. piger-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
47Corynoneura edwardsi-typeC. edwardsi-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
48Cricotopus barbatipesC. barbatipes#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
49Cricotopus bicinctus-typeC. bicinctus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
50Cricotopus-type CCricotopus-T C#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
51Cricotopus cylindraceus-typeC. cylindraceus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
52Cricotopus intersectus-typeC. intersectus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
53Cricotopus obnixus-typeC. obnixus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
54Cricotopus sylvestris-typeC. sylvestris-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
55EpoicocladiusEpoicocladius#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
56Eukiefferiella claripennis-typeE. claripennis-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
57Eukiefferiella fittkaui-typeE. fittkaui-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
58GeorthocladiusGeorthocladius#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
59HeleniellaHeleniella#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
60Heterotrissocladius maeaeri-typeH. maeaeri-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
61Hydrobaenus johannseni-typeH. johannseni-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
62LimnophyesLimnophyes#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
63MesocricotopusMesocricotopus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
64Metriocnemus fuscipesM. fuscipes#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
65Metriocnemus terresterM. terrester#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
66Orthocladius consobrinus-typeO. consobrinus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
67Orthocladius rivulorumO. rivulorum#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
68Orthocladius-type SOrthocladius-T S#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
69Parakiefferiella bathophila-typeP. bathophila-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
70ParacladiusParacladius#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
71Psectrocladius barbatipes-typeP. barbatipes-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
72Psectrocladius barbimanus-typeP. barbimanus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
73Psectrocladius calcaratus-typeP. calcaratus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
74Psectrocladius septentrionalis-typeP. septentrionalis-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
75Psectrocladius sordidellus-typeP.sordidellus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
76PseudorthocladiusPseudorthocladius#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
77PseudosmittiaPseudosmittia#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
78Rheocricotopus effususR. effusus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
79Rheocricotopus fuscipesR. fuscipes#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
80SynorthocladiusSynorthocladius#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
81TrissocladiusTrissocladius#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
82Tvetenia bavaricaT. bavarica#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
83Zalutschia mucronata-typeZ. mucronata-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
84PseudochironomusPseudochironomus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
85AblabesmyiaAblabesmyia#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
86GuttipelopiaGuttipelopia#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
87KrenopelopiaKrenopelopia#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
88ProcladiusProcladius#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
89TanypusTanypus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
90ZavrelimyiaZavrelimyia#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
91Cladotanytarsus mancus-typeC. mancus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
92Corynocera oliveri-typeC. oliveri-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
93Micropsectra-type AMicropsectra-T A#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
94Micropsectra pallidula-typeM. pallidula-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
95Micropsectra insignilobus-typeM. insignilobus-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
96Paratanytarsus austriacusP. austriacus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
97Paratanytarsus penicillatusP. penicillatus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
98Paratanytarsus sp.Paratanytarsus sp.#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
99RheotanytarsusRheotanytarsus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
100StempellinaStempellina#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
101StempellinellaStempellinella#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
102Tanytarsus chinyensis-typeT. chinyensis-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
103Tanytarsus glabrescens-typeT. glabrescens-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
104Tanytarsus gracilentusT. gracilentus#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
105Tanytarsus lactescens-typeT. lactescens-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
106Tanytarsus lugens-typeT. lugens-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
107Tanytarsus mendax-typeT. mendax-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
108Tanytarsus pallidicornis-typeT. pallidicornis-T#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
109NeozavreliaNeozavrelia#Watts, AspenWet sieved (100 µm) followed by hand picking from Bogorov sorting tray, mounted on permanent microscope slides, Euparal mounting medium
Status:
Curation Level: Enhanced curation (CurationLevelC)
Size:
4900 data points

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