BDInsight – March 2020

BestMarch for the Virtual Museum

Awesome citizen science teamwork for March 2020. Together we achieved BestMarch late on the evening of 30 March 2020! Now we have the whole of today to push the RED dot upwards, so that there is a big gap between it and the dot for March last year (see the graph below).

In spite of the setbacks of March, we continue to build species distribution maps. Please work through your backlogs, and please see what you can achieve in the locality you find yourself in now during the lockdown. Well done, Team Virtual Museum. Thank you. Stay sane, stay healthy and BioMAP at home.

Citizen Science: a solution to the problems of the 2020s?

We did this crazy exercise at the BDI Citizen Science Conference in the Karoo! An independent organization** made a list of “cultural” issues which might need a “shift” in our values and beliefs. We had a discussion in which we considered whether “citizen science” could help with awareness of these problems, and help provide a shift in the attitudes, values and beliefs! This is their full list, verbatim, unedited!

What we discussed ran like this. “In what ways can ‘citizen science’ (i.e. involvement with citizen science projects) help make a shift on how people see these issues? How can ‘citizen science’ change people’s attitudes values and beliefs. In what way does the organization of citizen science projects need to be adapted to help mitigate these issues?” At first glance, some of the topics seem far removed from “citizen science”. How on earth does “citizen science” interact with “hopelessness”? But this is the challenge. In the BDI, our focus is on both “citizen” and “science”. The “science” part is easy; trying to mitigate the real problems of the day, through citizen science, is going to stretch us.

Citizen science is about community, sharing knowledge, biodiversity stewardship… and having fun!

We are compiling a report on this discussion.

We are under lockdown, and many of us are wondering what sort of world and society we will emerge into on the other side. So this is a great opportunity for each of us to spend a bit of time thinking about these topics. We invite our readers to write a paragraph or more on these topics, and we will compile them into the report. Please email your ideas to Les Underhill (les [at] thebdi.org).

Disconnection from nature – Today, some see humanity as something apart from nature – not integral to it. And many believe this is what’s driven our civilization to the brink of environmental collapse. So we need to further cultivate the idea that we are one with nature – in fact we are nature defending itself.

Hopelessness – There is indeed a lot that needs changing in this world, but one barrier to making change is a feeling of hopelessness that seems to be rising across society. Let’s inspire hope in people so they believe in their own power to change their world.

Nationalism and division – Division and hate are overpowering social media. But we are one people, one love. Let’s counter nationalism with a global sense of community and commonality.

Anger and trigger – We all have things that steal our cool. We call them “triggers”. And when triggered, people act most often from anger and anxiety. We need to cultivate a culture of “untriggering” – taking a deep breath and acting from more self-aware emotions.

Rape and trauma – Recently, victims of sexual violence have used social media to tell their stories, and overcome shame and deep pain. One important next step is to focus on the pride of surviving trauma and giving people a network of online support.

Division and hate – We are living in a moment of deep division, and there are few public models for how to talk constructively to people on the other side of the political/ideological spectrum. What if we learned to be better in our ability to disagree with strength and kindness?

Sexism, men and toxic masculinity – Let’s open up a discussion about how we can raise little boys free from the toxic stories about what “real” men should be – often portrayed as unemotional or unfeeling.

Lack of inspiration – Our heroes sometimes feel too grand for us. We don’t feel like we, in our regular lives, can be great based on these stories. What if we found ordinary people who have risen to this moment and done incredible things, and share their stories to inspire others?

Screen addiction and loneliness – We are living an epidemic of screen addiction, disconnection and loneliness. Let’s support one another in unplugging more, and cultivating and appreciating real-life deeper connection.

**Avaaz is the organization whose survey we used. This non-profit organization has, since 2007, promoted global activism on issues such as climate change, human rights, corruption, poverty, biodiversity and conflict. It is probably the world’s largest and most powerful online activist network. Avaaz describes itself as a campaigning community bringing people-powered politics to decision-making worldwide.

Climate Change and Willow Warblers

Willow Warbler Phylloscopus trochilusBirdPix record

One thing we can be grateful for in this crazy time is that migratory birds are not taking the blame for transporting COVID-19. The migrant birds are now on their way north. In the midst of this chaotic week, Magda Remisiewicz (University of Gdansk, Poland) and Les Underhill (UCT and BDI) had a paper published about a long-distant migrant, Willow Warblers. In Poland, there’s a migration study site on the coast of the Baltic Sea near a small town called Bukowo. At this site the birds flying north have sea on their left, and a lake on their right, and are funneled through a narrow strip of land. Researchers from the University of Gdansk, assisted by lots of citizen scientists, have mist netted migrants in spring using a standardized system for decades. They have generated one of the best datasets for investigating how the timing of migration has varied through time.

It has been well known for a long time that migration is getting earlier, and Willow Warbler migration at Bukowo is getting earlier too. What sets this paper apart is that it develops a statistical model that “explains” nearly 60% of the annual variation in the timing of migration. The “explanatory variables” in the model are the big climate indices (such as the Southern Oscillation Index, responsible for El Ninos). Although the model was given “Year” as an “explanatory variable”, it chose not to use this. “Year” was “redundant”. The pattern of migration getting generally earlier was “explained” better by the long term changes in the climate indices. The paper used data from 1982 to 2017.

It is published in the Open Access journal PeerJ. Anyone can download the article for free: https://peerj.com/articles/8770.pdf

Abstract

Background. The arrival of many species of migrant passerine in the European
spring has shifted earlier over recent decades, attributed to climate change and rising
temperatures in Europe and west Africa. Few studies have shown the effects of climate
change in both hemispheres though many long-distance migrants use wintering
grounds which span Africa. The migrants’ arrival in Europe thus potentially reflects a
combination of the conditions they experience across Africa. We examine if the timing
of spring migration of a long-distance migrant, the Willow Warbler, is related to largescale climate indices across Africa and Europe.
Methods. Using data from daily mistnetting from 1 April to 15 May in 19822017 at
Bukowo (Poland, Baltic Sea coast), we developed an Annual Anomaly metric (AA, in
days) to estimate how early or late Willow Warblers arrive each spring in relation to
their multi-year average pattern. The Willow Warblers’ spring passage advanced by
5.4 days over the 36 years. We modelled AA using 14 potential explanatory variables
in multiple regression models. The variables were the calendar year and 13 large-scale
indices of climate in Africa and Europe averaged over biologically meaningful periods
of two to four months during the year before spring migration.
Results. The best model explained 59% of the variation in AA with seven variables:
Northern Atlantic Oscillation (two periods), Indian Ocean Dipole, Southern Oscillation
Index, Sahel Precipitation Anomaly, Scandinavian Index and local mean temperatures.
The study also confirmed that a long-term trend for Willow Warblers to arrive earlier
in spring continued up to 2017.
Discussion. Our results suggest that the timing of Willow Warbler spring migration
at the Baltic Sea coast is related to a summation of the ecological conditions they
had encountered over the previous year during breeding, migration south, wintering
in Africa and migration north. We suggest these large-scale climate indices reflect
ecological drivers for phenological changes in species with complex migration patterns
and discuss the ways in which each of the seven climate indices could be related to
spring migration at the Baltic Sea coast.

Sailing Bluet (Azuragrion nigridorsum)

Cover photo by Bernardine Altenroxel.

Find the Sailing Bluet in the FBIS database (Freshwater Biodiversity Information System) here.

Family Coenagrionidae

Identification

Very small size

Length up to 28mm; Wingspan attains 33mm.

The Sailing Bluet is often found alongside the Swamp Bluet (Africallagma glaucum), but is easily differentiated by its deeper blue colouration and by the black protrusion onto the eighth segment of the abdomen.

The females are similar to other Bluet females, and are best identified by their association with the males.

Click here for more details on identification.

Sailing Bluet Azuragrion nigridorsum – Male
Near Hluhluwe, KwaZulu-Natal
Photo by Ryan Tippett

Habitat

The Sailing Bluet frequents well-vegetated, still-water environments such as dams, ponds, marshes, and the quiet backwaters of rivers and streams. Azuragrion nigridorsum usually occupies areas with floating and emergent plants like waterlilies and sedges and is frequently found near floating mats of green algae.

Typical habitat – Near Hluhluwe, KwaZulu-Natal
Photo by Ryan Tippett

Behaviour

The Sailing Bluet is mostly found low down close to the water, where it perches on lily pads or emergent plants. The flight is fast and typically low over the water. When the weather is calm, the Sailing Bluet sometimes alights gently on the water without breaking the surface. They then drift across the pond in the breeze with their folded wings acting as sails (see image below). Females are often found in the same vicinity as the males.

The Sailing Bluet is primarily active from October to April but flies year-round at some sites. See Phenology below.

Sailing Bluet Azuragrion nigridorsum – Male
Near Hluhluwe, KwaZulu-Natal
Photo by Ryan Tippett

Status and Conservation

The sailing Bluet is a common and widespread species. It is listed as of Least Concern in the IUCN Red List of Threatened Species. Azuragrion nigridorsum is moderately sensitive to habitat damage, but has adapted well to man-made habitats and has doubtless benefited from this.

Sailing Bluet Azuragrion nigridorsum – Male
Near Hluhluwe, KwaZulu-Natal
Photo by Ryan Tippett

Distribution

Azuragrion nigridorsum is found from Ethiopia in the north, down through most of East and Southern Africa, including Angola and Zambia. In South Africa it is mostly absent from the dry central region.

Sailing Bluet Azuragrion nigridorsum – Male
Near Hluhluwe, KwaZulu-Natal
Photo by Ryan Tippett

Below is a map showing the distribution of records for Sailing Bluet in South Africa. Taken from the OdonataMAP database as at February 2020.

Below is a map showing the distribution of records for Sailing Bluet in South Africa. Taken from the OdonataMAP database as of December 2024.

The next map below is an imputed map, produced by an interpolation algorithm, which attempts to generate a full distribution map from the partial information in the map above. This map will be improved by the submission of records to the OdonataMAP section of the Virtual Museum.

Ultimately, we will produce a series of maps for all the odonata species in the region. The current algorithm is a new algorithm. The objective is mainly to produce “smoothed” maps that could go into a field guide for odonata. This basic version of the algorithm (as mapped above) does not make use of “explanatory variables” (e.g. altitude, terrain roughness, presence of freshwater — we will be producing maps that take these variables into account soon). Currently, it only makes use of the OdonataMAP records for the species being mapped, as well as all the other records of all other species. The basic maps are “optimistic” and will generally show ranges to be larger than what they probably are.

These maps use the data in the OdonataMAP section of the Virtual Museum, and also the database assembled by the previous JRS funded project, which was led by Professor Michael Samways and Dr KD Dijkstra.

Sailing Bluet Azuragrion nigridorsum – Male
Photo by Felicity Grundlingh

Phenology

Sailing Bluet Azuragrion nigridorsum – Pair
Near Hluhluwe, KwaZulu-Natal
Photo by Ryan Tippett

Further Resources

The use of photographs by Bernardine Altenroxel and Felicity Grundlingh is acknowledged. Other photographs by Ryan Tippett.

Sailing Bluet Azuragrion nigridorsum (Selys, 1876)

Other common names: Black-tailed Bluet (Alt. English); Swartstertbloutjie (Afrikaans)

Recommended citation format: Loftie-Eaton M; Navarro R; Tippett RM; Underhill L. 2025. Sailing Bluet Azuragrion nigridorsum. Biodiversity and Development Institute. Available online at https://thebdi.org/2020/03/20/sailing-bluet-azuragrion-nigridorsum/

References: Tarboton, M; Tarboton, W. (2019). A Guide to the Dragonflies & Damselflies of South Africa. Struik Nature.

Samways, MJ. (2008). Dragonflies and Damselflies of South Africa. Pensoft

Samways, MJ. (2016). Manual of Freshwater Assessment for South Africa: Dragonfly Biotic Index. Suricata 2. South African National Biodiversity Institute, Pretoria

Martens, A; Suhling, F. (2007). Dragonflies and Damselflies of Namibia. Gamsberg Macmillan.

Sailing Bluet Azuragrion nigridorsum – Male
Near Hluhluwe, KwaZulu-Natal
Photo by Ryan Tippett

Similar Species

Orange Wisp (Agriocnemis ruberrima)

Cover photo by Diana Russell.

Find the Orange Wisp in the FBIS database (Freshwater Biodiversity Information System) here.

Family Coenagrionidae

There are two distinct subspecies of the Orange Wisp in southern Africa, Agriocnemis ruberrima ruberrima (NE South Africa) and Agriocnemis ruberrima albifrons (Botswana to Angola and Zambia). Further studies may determine that the two are, in fact, separate species.

This species text deals mainly with the South African subspecies Agriocnemis ruberrima ruberrima.

Identification

Orange Wisp Agriocnemis ruberrima ruberrima – Male
Kosi Bay, iSimangaliso Wetland Park, KwaZulu-Natal
Photo By Ryan Tippett

Tiny size

Length reaches 23mm; Wingspan up to 28mm.

Adult males of the South African subspecies are readily identifiable due to the near luminous, all-orange-red abdomen.

Females are very similar in appearance to other Agriocnemis species, especially the Little Wisp (Agriocnemis exilis) and are best told by their association with the males.

Click here for more details on identification.

Orange Wisp Agriocnemis ruberrima ruberrima – Female
Kosi Bay, iSimangaliso Wetland Park, KwaZulu-Natal
Photo By Ryan Tippett

Habitat

The Orange Wisp inhabits the shallow, grassy fringes of seasonal ponds, pans, and marshes. It is most often found in mosaic habitats consisting of open, coastal grassland and forest.

Habitat – Near Kosi Bay, KwaZulu-Natal
Photo by Ryan Tippett

Behaviour

The Orange Wisp is inconspicuous due to its minute size and habit of sitting low down among grass stems above the water. They do not fly far once disturbed and quickly settle again on a grass stem. The females occur alongside the males.

The Orange Wisp is active from November to May (see Phenology below).

Orange Wisp Agriocnemis ruberrima ruberrima – Male
Kosi Bay, iSimangaliso Wetland Park, KwaZulu-Natal
Photo By Ryan Tippett

Status and Conservation

The South African ruberrima subspecies is uncommon and, due to its small, restricted distribution, is listed as Endangered on the Red List. The Orange Wisp is intolerant of habitat degradation and is only found in pristine habitat. A large amount of its range is currently protected within the iSimangaliso Wetland Park.

Orange Wisp Agriocnemis ruberrima ruberrima – Male
Kosi Bay, iSimangaliso Wetland Park, KwaZulu-Natal
Photo By Ryan Tippett

Distribution

The subspecies Agriocnemis ruberrima ruberrima has so far only been recorded from the coastal plain of north-eastern KwaZulu-Natal in South Africa. It could also occur marginally in neighbouring southern Mozambique.

Agriocnemis ruberimma albifrons occurs in the Okavango region of northern Botswana and in the Caprivi strip of Namibia. It is also found in northern Zambia and at a few scattered locations in Angola.

Orange Wisp Agriocnemis ruberrima ruberrima – Male
Kosi Bay, iSimangaliso Wetland Park, KwaZulu-Natal
Photo By Ryan Tippett

Below is a map showing the distribution of records for Orange Wisp Agriocnemis ruberrima ruberrima in the OdonataMAP database as at February 2020.

Below is a map showing the distribution of records for Orange Wisp Agriocnemis ruberrima ruberrima in the OdonataMAP database as of December 2024.

The next map below is an imputed map, produced by an interpolation algorithm, which attempts to generate a full distribution map from the partial information in the map above. This map will be improved by the submission of records to the OdonataMAP section of the Virtual Museum.

Ultimately, we will produce a series of maps for all the odonata species in the region. The current algorithm is a new algorithm. The objective is mainly to produce “smoothed” maps that could go into a field guide for odonata. This basic version of the algorithm (as mapped above) does not make use of “explanatory variables” (e.g. altitude, terrain roughness, presence of freshwater — we will be producing maps that take these variables into account soon). Currently, it only makes use of the OdonataMAP records for the species being mapped, as well as all the other records of all other species. The basic maps are “optimistic” and will generally show ranges to be larger than what they probably are.

These maps use the data in the OdonataMAP section of the Virtual Museum, and also the database assembled by the previous JRS funded project, which was led by Professor Michael Samways and Dr KD Dijkstra.

Phenology

Orange Wisp Agriocnemis ruberrima ruberrima – Male
Kosi Bay, iSimangaliso Wetland Park, KwaZulu-Natal
Photo By Ryan Tippett

Further Resources

The use of photographs by Diana Russell is acknowledged. Other photographs by Ryan Tippett.

Orange Wisp Agriocnemis ruberrima ruberrima Tillyard, 1913

Other common names: Red-rumped Wisp (Alt. English); Oranjesoetjie (Afrikaans)

Recommended citation format: Loftie-Eaton M; Navarro R; Tippett RM; Underhill L. 2025. Orange Wisp Agriocnemis ruberrima ruberrima. Biodiversity and Development Institute. Available online at https://thebdi.org/2020/03/18/orange-wisp-agriocnemis-ruberrima/

References: Tarboton, M; Tarboton, W. (2019). A Guide to the Dragonflies & Damselflies of South Africa. Struik Nature.

Samways, MJ. (2008). Dragonflies and Damselflies of South Africa. Pensoft

Samways, MJ. (2016). Manual of Freshwater Assessment for South Africa: Dragonfly Biotic Index. Suricata 2. South African National Biodiversity Institute, Pretoria

Martens, A; Suhling, F. (2007). Dragonflies and Damselflies of Namibia. Gamsberg Macmillan.

Similar Species

Painted Sprite (Pseudagrion hageni)

Cover photo by Ilse Hulme.

Find the Painted Sprite in the FBIS database (Freshwater Biodiversity Information System) here.

Family Coenagrionidae

Identification

Painted Sprite Pseudagrion hageni tropicanum – Male
Near Ixopo, KwaZulu-Natal
Photo by Ryan Tippett

Small to Medium sized

Length reaches 46mm; Wingspan attains 58mm.

The Painted Sprite has a distinctly elongate appearance. Males are most similar to Pseudagrion newtoni, but are far larger and the blue on the terminal segments does not extend up past segment 8. The two species also occupy very different habitats.

Females are less distinctive but can be recognised by their elongated appearance and shaded habitat.

There are two distinct sub-species in South Africa. Race tropicanum has bright yellow-green thorax sides and antehumeral stripes. Race hageni has bright orange thorax sides and antehumeral stripes.

Click here and here for more details on identification.

Painted Sprite Pseudagrion hageni tropicanum – Female
Kosi Bay, iSimangaliso Wetland Park, KwaZulu-Natal
Photo by Ryan Tippett

Habitat

The Painted Sprite is a shade-loving species. It inhabits slow-flowing parts of forested or densely wooded streams and rivers, often with a jumbled undergrowth of tall grasses, bushes, sticks, and ferns, etc. They are frequently found where the tree canopy is closed over. However, the Painted Sprite also occurs at glades and clearings within this habitat, but never far from shade. Pseudagrion hageni also inhabits in dark swamp forests along the KwaZulu-Natal coast.

The Painted Sprite requires clean water and is often found in places where the water is dark and tannin-stained. Painted sprites are intolerant of turbid, muddy water.

Habitat – Kosi Bay, KwaZulu-Natal
Photo by Ryan Tippett

Behaviour

The Painted Sprite is almost always found in deep shade areas where males perch on plant stems over the water. The males are conspicuous due to their bright colouration. The females can be found in the same area as the males but often perch higher up and further away from the water. Individuals frequently hover for a few seconds close to the water before alighting on a perch.

The Painted Sprite is most active from October to April but has been recorded year round at a number of sites (See Phenology below).

Painted Sprite Pseudagrion hageni tropicanum – Male
Kosi Bay, iSimangaliso Wetland Park, KwaZulu-Natal
Photo by Ryan Tippett

Status and Conservation

Pseudagrion hageni is a common but localised species. It is listed as of Least Concern in the IUCN Red list of Threatened Species. The Painted Sprite is moderately sensitive to habitat disturbance. It can be found in suitable man-made habitats and in areas with some alien plants.

Painted Sprite Pseudagrion hageni tropicanum – Male
Sodwana, iSimangaliso Wetland Park, KwaZulu-Natal
Photo by Ryan Tippett

Distribution

Painted Sprites are found from the Western Cape in South Africa to Kenya, Uganda, the Democratic Republic of the Congo, and Angola. In South Africa, the Painted Sprite is widespread in the north, east and south of the Country.

Painted Sprite Pseudagrion hageni tropicanum – Male
Sodwana, iSimangaliso Wetland Park, KwaZulu-Natal
Photo by Ryan Tippett

Below is a map showing the distribution of records for Painted Sprite in South Africa. Taken from the OdonataMAP database as at February 2020.

Below is a map showing the distribution of records for Painted Sprite in South Africa. Taken from the OdonataMAP database as of December 2024.

The next map below is an imputed map, produced by an interpolation algorithm, which attempts to generate a full distribution map from the partial information in the map above. This map will be improved by the submission of records to the OdonataMAP section of the Virtual Museum.

Ultimately, we will produce a series of maps for all the odonata species in the region. The current algorithm is a new algorithm. The objective is mainly to produce “smoothed” maps that could go into a field guide for odonata. This basic version of the algorithm (as mapped above) does not make use of “explanatory variables” (e.g. altitude, terrain roughness, presence of freshwater — we will be producing maps that take these variables into account soon). Currently, it only makes use of the OdonataMAP records for the species being mapped, as well as all the other records of all other species. The basic maps are “optimistic” and will generally show ranges to be larger than what they probably are.
These maps use the data in the OdonataMAP section of the Virtual Museum, and also the database assembled by the previous JRS funded project, which was led by Professor Michael Samways and Dr KD Dijkstra.

Painted Sprite Pseudagrion hageni tropicanum – Male
Sodwana, iSimangaliso Wetland Park, KwaZulu-Natal
Photo by Ryan Tippett

Phenology

Painted Sprite Pseudagrion hageni tropicanum – Male
Kosi Bay, iSimangaliso Wetland Park, KwaZulu-Natal
Photo by Ryan Tippett

Further Resources

The use of photographs by Ilse Hulme is acknowledged. Other photographs by Ryan Tippett.

Painted Sprite Pseudagrion hageni Karsch, 1893

Other common names: Blanketselgesie (Afrikaans).

Recommended citation format: Loftie-Eaton M; Navarro R; Tippett RM; Underhill L. 2025. Painted Sprite Pseudagrion hageni. Biodiversity and Development Institute. Available online at https://thebdi.org/2020/03/09/painted-sprite-pseudagrion-hageni/

References: Tarboton, M; Tarboton, W. (2019). A Guide to the Dragonflies & Damselflies of South Africa. Struik Nature.

Samways, MJ. (2008). Dragonflies and Damselflies of South Africa. Pensoft

Samways, MJ. (2016). Manual of Freshwater Assessment for South Africa: Dragonfly Biotic Index. Suricata 2. South African National Biodiversity Institute, Pretoria

Martens, A; Suhling, F. (2007). Dragonflies and Damselflies of Namibia. Gamsberg Macmillan.

Painted Sprite Pseudagrion hageni tropicanum – Male
Sodwana, iSimangaliso Wetland Park, KwaZulu-Natal
Photo by Ryan Tippett

Similar Species

Sapphire Bluet (Africallagma sapphirinum)

Cover photo by Wil Leurs.

Find the Sapphire Bluet in the FBIS database (Freshwater Biodiversity Information System) here.

Family Coenagrionidae

Identification

Sapphire Bluet Africallagma sapphirinum – Male
Near Kokstad, KwaZulu-Natal
Photo by Alan Manson

Very small

Length up to 28mm; Wingspan reaches 40mm.

The male Sapphire Bluet carries bright blue and black colouration and is therefore similar to other Bluet species. However, it is easily recognised by its more vivid blue colouration, and by the diagnostic, broad black bands on the abdomen.

Females are distinctive and share the same markings as the males, but are far duller in appearance.

Click here for more details on identification.

Sapphire Bluet Africallagma sapphirinum – Male
Near Colesburg, Northern Cape
Photo by Ryan Tippett

Habitat

Typical habitat – Wakkerstroom, Mpumalanga
Photo by Ryan Tippett

The Sapphire Bluet is found in highveld grassland, where it prefers well-vegetated, still-water habitats. It favours water bodies with floating and half-submerged aquatic plants such as natural ponds, and the sheltered margins of lakes and dams. The Sapphire Bluet is sometimes also found along streams with thick, grassy banks and quiet pools. It mostly occurs at altitudes between 1000 and 1800m above sea level.

The Sapphire Bluet sometimes inhabits well-vegetated, small streams with pools.
Near Colesberg, Northern Cape
Photo by Ryan Tippett

Behaviour

The Sapphire Bluet sits close to the water on overhanging grass or on floating vegetation. It is an alert and weary species that flies low across the water when disturbed. It hunts from a perch and feeds on small flying insects.

The Sapphire Bluet is on the wing from September to April (see Phenology below).

Sapphire Bluet Africallagma sapphirinum – Male
Near Colesburg, Northern Cape
Photo by Ryan Tippett

Status and Conservation

Africallagma sapphirinum is a common but localised species. It is listed as of Least concern on the IUCN Red List of Threatened Species. The Sapphire Bluet is moderately sensitive to habitat disturbance. It commonly occurs at suitable man-made dams and ponds, including those with some alien plant growth. Within its habitat range, this species has no doubt benefited from its use of artificial impoundments.

Sapphire Bluet Africallagma sapphirinum – Male
Near Colesburg, Northern Cape
Photo by Ryan Tippett

Distribution

The Sapphire Bluet is endemic to the highveld grasslands of South Africa. There is also an isolated population in the Cedarberg, Western Cape.

Below is a map showing the distribution of records for Sapphire Bluet in the OdonataMAP database as at February 2020.

Below is a map showing the distribution of records for Sapphire Bluet in the OdonataMAP database as at December 2024.

The next map below is an imputed map, produced by an interpolation algorithm, which attempts to generate a full distribution map from the partial information in the map above. This map will be improved by the submission of records to the OdonataMAP section of the Virtual Museum.

Ultimately, we will produce a series of maps for all the odonata species in the region. The current algorithm is a new algorithm. The objective is mainly to produce “smoothed” maps that could go into a field guide for odonata. This basic version of the algorithm (as mapped above) does not make use of “explanatory variables” (e.g. altitude, terrain roughness, presence of freshwater — we will be producing maps that take these variables into account soon). Currently, it only makes use of the OdonataMAP records for the species being mapped, as well as all the other records of all other species. The basic maps are “optimistic” and will generally show ranges to be larger than what they probably are.

These maps use the data in the OdonataMAP section of the Virtual Museum, and also the database assembled by the previous JRS funded project, which was led by Professor Michael Samways and Dr KD Dijkstra.

Phenology

Further Resources

The use of photographs by Alan Manson and Wil Leurs is acknowledged.

Sapphire Bluet Africallagma sapphirinum (Pinhey, 1950)

Other Common names: Saffierbloutjie (Afrikaans).

Recommended citation format: Loftie-Eaton M; Navarro R; Tippett RM; Underhill L. 2025. Sapphire Bluet Africallagma sapphirinum. Biodiversity and Development Institute. Available online at https://thebdi.org/2020/03/09/sapphire-bluet-africallagma-sapphirinum/

References: Tarboton, M; Tarboton, W. (2019). A Guide to the Dragonflies & Damselflies of South Africa. Struik Nature.

Samways, MJ. (2008). Dragonflies and Damselflies of South Africa. Pensoft

Samways, MJ. (2016). Manual of Freshwater Assessment for South Africa: Dragonfly Biotic Index.Suricata 2. South African National Biodiversity Institute, Pretoria

Similar Species

Masai Sprite (Pseudagrion massaicum)

Cover photo by Basil Boer.

Find the Masai Sprite in the FBIS database (Freshwater Biodiversity Information System) here.

Family Coenagrionidae

Identification

Masai Sprite Pseudagrion massaicum – Male
Mkuze Game Reserve, KwaZulu-Natal
Photo by Ryan Tippett

Small size

Length up to 38mm; Wingspan reaches 45mm

The Masai Sprite is similar to the other ‘red’ sprites, but most resembles Pseudagrion sjoestedti (Variable Sprite) and Pseudagrion vaalense (Vaal Sprite).

Males are characterised by their largely red head and thorax, including red postocular spots. The lower thorax is pale pruinose blue, while the dark abdomen ends with a bright blue terminal segment.

Females are drab brown and best recognised by their association with the males.

Click here for more details on identification.

Masai Sprite Pseudagrion massaicum – Female
Selinda, Botswana
Photo by Ryan Tippett

Habitat

The Masai Sprite is found mostly at still-water habitats such as pans, dams, ponds, lakes and slow flowing parts of rivers and streams. Masai Sprites prefer well vegetated parts of water bodies, however they can also be found at water with bare gravelly or sandy banks provided there is at least some aquatic vegetation.

Habitat – Mkhuze Game Reserve, KwaZulu-Natal
Photo by Ryan Tippett

Behaviour

The Masai Sprite perches on waterlilies and other emergent plants and twigs close to the water surface. It sometimes also sits on rocks or exposed sand at the waters edge. Flies low over the water when disturbed, hunting or changing perches. Females can be found near the males, but are frequently found away from the water in the surrounding bushes or woodlands.

The Masai Sprite has been recorded throughout the year at some sites, but is most active from September to April. See Phenology below.

Masai Sprite Pseudagrion massaicum – Male
Carnarvon district, Northern Cape
Photo by Ryan Tippett

Conservation and Status

The Masai Sprite is listed as of Least Concern in the IUCN Red List of Threatened Species. Pseudagrion massaicum is an abundant and widespread species that has widely benefited from the use of man-made impoundments. It can be found in somewhat degraded habitats, including sewage treatment ponds and areas with alien plants.

Masai Sprite Pseudagrion massaicum – Mating pairs
Muzi Pan, KwaZulu-Natal
Photo by Ryan Tippett

Distribution

The Masai Sprite is widespread across sub-Saharan Africa. It has been recorded from all provinces in South Africa and is likely to occur almost anywhere but is less numerous in arid regions.

Below is a map showing the distribution of records for Masai Sprite in the OdonataMAP database as at February 2020.

Below is a map showing the distribution of records for Masai Sprite in the OdonataMAP database as of December 2024.

The next map below is an imputed map, produced by an interpolation algorithm, which attempts to generate a full distribution map from the partial information in the map above. This map will be improved by the submission of records to the OdonataMAP section of the Virtual Museum.

Ultimately, we will produce a series of maps for all the odonata species in the region. The current algorithm is a new algorithm. The objective is mainly to produce “smoothed” maps that could go into a field guide for odonata. This basic version of the algorithm (as mapped above) does not make use of “explanatory variables” (e.g. altitude, terrain roughness, presence of freshwater — we will be producing maps that take these variables into account soon). Currently, it only makes use of the OdonataMAP records for the species being mapped, as well as all the other records of all other species. The basic maps are “optimistic” and will generally show ranges to be larger than what they probably are.

These maps use the data in the OdonataMAP section of the Virtual Museum, and also the database assembled by the previous JRS funded project, which was led by Professor Michael Samways and Dr KD Dijkstra.

Phenology

Masai Sprite Pseudagrion massaicum – Male
Montagu, Western Cape
Photo by Ryan Tippett

Further Resources

The use of photographs by Basil Boer is acknowledged. All other photographs by Ryan Tippett.

Masai Sprite Pseudagrion massaicum Sjöstedt, 1909

Other common names: Masaigesie (Afrikaans)

Recommended citation format: Loftie-Eaton M; Navarro R; Tippett RM; Underhill L. 2025. Masai Sprite Pseudagrion massaicum. Biodiversity and Development Institute. Available online at https://thebdi.org/2020/03/04/masai-sprite-pseudagrion-massaicum/

References: Tarboton, M; Tarboton, W. (2019). A Guide to the Dragonflies & Damselflies of South Africa. Struik Nature.

Samways, MJ. (2008). Dragonflies and Damselflies of South Africa. Pensoft

Samways, MJ. (2016). Manual of Freshwater Assessment for South Africa: Dragonfly Biotic Index. Suricata 2. South African National Biodiversity Institute, Pretoria

Martens, A; Suhling, F. (2007). Dragonflies and Damselflies of Namibia. Gamsberg Macmillan.

Masai Sprite Pseudagrion massaicum – Male
Amakhosi Game Reserve, KwaZulu-Natal
Photo by Ryan Tippett

Similar Species

Darting Cruiser (Phyllomacromia picta)

Cover photo by Gary Brown.

Find the Darting Cruiser in the FBIS database (Freshwater Biodiversity Information System) here.

Family Macromiidae

Identification

Darting Cruiser Phyllomacromia picta – Male
Mkuze River, KwaZulu-Natal
Photo by Ryan Tippett

Medium to Large size

Length up to 58mm; Wingspan reaches 81mm.

The Darting Cruiser most resembles other Phyllomacromia species, particularly the Sable Cruiser (Phyllomacromia monoceros). Both species show a bold yellow and black banded thorax, but the Sable Cruiser is larger and has a mostly all-black abdomen.

The Darting Cruiser is readily told apart from the Two-banded Cruiser (Phyllomacromia contumax) which is far larger and has a plain glossy black, unmarked thorax.

The sexes are similar in appearance. Females are more robust and lack the yellow/white claspers of the males.

Click here for more details on identification of the Darting Cruiser.

Darting Cruiser Phyllomacromia picta – Female
Near Parys, Free State
Photo by Jaco Botes

Habitat

The breeding habitat of the Darting Cruiser is mostly along rivers, often with well-wooded areas above the banks. Phyllomacromia picta can also be found at large dams and lakes. They may be seen patrolling a length of river, but are far more frequently found away from water. Non-breeding individuals can be found in a wide range of habitats, from forest edge to fynbos and open Karoo scrub far from water.

Typical habitat – Mkuze River, KwaZulu-Natal
Photo by Ryan Tippett

Behaviour

This species is seldom seen perched. The Darting Cruiser is most often found patrolling back and forth along a chosen flight path. It will periodically dart off to chase prey before settling back into its regular route. The flight is smooth and fast. When perched, the Darting Cruiser will hang from the underside of a twig or branch. The very long hind legs are likely a hindrance to perching horizontally.

The Darting Cruiser is most active from September to May, possibly year-round at warmer sites. See Phenology below.

Darting Cruiser Phyllomacromia picta – Male
Orange River near Prieska, Northern Cape
Photo by Ryan Tippett

Status and Conservation

Phyllomacromia picta is a widespread and common species, although seldom seen in large numbers. It is listed as of Least Concern in the IUCN Red List of Threatened Species. It has a fairly low sensitivity to habitat disturbance.

The Darting Cruiser is likely under-recorded in the OdonataMap database. This is due to its fast, aerial lifestyle that can make it difficult to photograph.

Darting Cruiser Phyllomacromia picta – Female
Shayamoya Game Lodge, KwaZulu-Natal
Photo by Ryan Tippett

Distribution

The Darting Cruiser occurs throughout Southern Africa, and its range extends through to Central and East Africa. In South Africa, it is most commonly recorded in the North and East.

Darting Cruiser Phyllomacromia picta – Male
Mkuze River, KwaZulu-Natal
Photo by Ryan Tippett

Below is a map showing the distribution of records for Darting Cruiser in South Africa. Taken from the OdonataMAP database as at February 2020.

Below is a map showing the distribution of records for Darting Cruiser in South Africa. Taken from the OdonataMAP database as of December 2024.

The next map below is an imputed map, produced by an interpolation algorithm, which attempts to generate a full distribution map from the partial information in the map above. This map will be improved by the submission of records to the OdonataMAP section of the Virtual Museum.

Ultimately, we will produce a series of maps for all the odonata species in the region. The current algorithm is a new algorithm. The objective is mainly to produce “smoothed” maps that could go into a field guide for odonata. This basic version of the algorithm (as mapped above) does not make use of “explanatory variables” (e.g. altitude, terrain roughness, presence of freshwater — we will be producing maps that take these variables into account soon). Currently, it only makes use of the OdonataMAP records for the species being mapped, as well as all the other records of all other species. The basic maps are “optimistic” and will generally show ranges to be larger than what they probably are.

These maps use the data in the OdonataMAP section of the Virtual Museum, and also the database assembled by the previous JRS funded project, which was led by Professor Michael Samways and Dr KD Dijkstra.

Darting Cruiser Phyllomacromia picta – Male
Photo by Arnold van der Westhuizen

Phenology

Darting Cruiser Phyllomacromia picta – Male
Carnarvon district, Northern Cape
Photo by Ryan Tippett

Further Resources

The use of photographs by Gary Brown and Jaco Botes is acknowledged. All other photographs by Ryan Tippett.

Darting Cruiser Phyllomacromia picta (Hagen, 1871)

Other common names: Pyltjieswalker (Afrikaans)

Recommended citation format: Loftie-Eaton M; Navarro R; Tippett RM; Underhill L. 2025. Darting Cruiser Phyllomacromia picta. Biodiversity and Development Institute. Available online at https://thebdi.org/2020/03/04/darting-cruiser-phyllomacromia-picta/

References: Tarboton, M; Tarboton, W. (2019). A Guide to the Dragonflies & Damselflies of South Africa. Struik Nature.

Samways, MJ. (2008). Dragonflies and Damselflies of South Africa. Pensoft

Samways, MJ. (2016). Manual of Freshwater Assessment for South Africa: Dragonfly Biotic Index. Suricata 2. South African National Biodiversity Institute, Pretoria

Martens, A; Suhling, F. (2007). Dragonflies and Damselflies of Namibia. Gamsberg Macmillan.

Similar Species

Graceful Slim (Aciagrion gracile)

Cover photo by Walter Neser.

Find the Graceful Slim in the FBIS database (Freshwater Biodiversity Information System) here.

Family Coenagrionidae

Identification

Graceful Slim Aciagrion gracile – Immature Male
Near Tshipise, Limpopo
Photo by John Wilkinson

Small size

Length up to 39mm; Wingspan around 46mm.

Aciagrion gracile has a noticeably slender and elongate build. Males have a bright green upper thorax with greenish-blue sides. The long, slender abdomen is black above and brownish below. The terminal segments are bright blue. The postocular spots are bright greenish-blue.

The Graceful Slim is most similar to the Opal Slim (Aciagrion dondoense). The two species are best told apart in the hand by the shape of the claspers.

Click here for more details on identification.

Habitat

The Graceful Slim inhabits the thick bushy verges of shallow grassy pans and marshes. It is found in hot, humid woodland and forest regions.

Habitat at Kosi Bay, iSimangaliso Wetland Park, KwaZulu-Natal
Photo by Ryan Tippett

Behaviour

Aciagrion gracile is a crepuscular species, that is most active at dusk and is easily overlooked. The males are most often found between thick bush and grasses at the edge of the wetland. Females are usually found among emergent grasses and reeds further out into the water.

The Graceful Slim is active from January to April (see Phenology below).

Status and Conservation

The Graceful Slim is uncommon and highly localised in South Africa. It has likely been under-recorded due to its secretive, crepuscular behaviour. In South Africa, Aciagrion gracile is listed as Vulnerable in the IUCN Red List of Threatened Species. It is listed globally as of Least Concern as it has a wide distribution within the rest of Africa. The Graceful Slim is sensitive to habitat degradation and, for the most part, occurs only in undisturbed habitats.

Distribution

The Graceful Slim is found from South Africa, up through East Africa to Uganda and Ethiopia. It also occurs in West Africa from Congo to Guinea. In South Africa, the Graceful Slim has only been recorded from Limpopo and the north-east of KwaZulu-Natal.

Below is a map showing the distribution of records for Graceful Slim in South Africa. Taken from the OdonataMAP database as at February 2020.

Below is a map showing the distribution of records for Graceful Slim in South Africa. Taken from the OdonataMAP database as of December 2024.

The next map below is an imputed map, produced by an interpolation algorithm, which attempts to generate a full distribution map from the partial information in the map above. This map will be improved by the submission of records to the OdonataMAP section of the Virtual Museum.

Ultimately, we will produce a series of maps for all the odonata species in the region. The current algorithm is a new algorithm. The objective is mainly to produce “smoothed” maps that could go into a field guide for odonata. This basic version of the algorithm (as mapped above) does not make use of “explanatory variables” (e.g. altitude, terrain roughness, presence of freshwater — we will be producing maps that take these variables into account soon). Currently, it only makes use of the OdonataMAP records for the species being mapped, as well as all the other records of all other species. The basic maps are “optimistic” and will generally show ranges to be larger than what they probably are.

These maps use the data in the OdonataMAP section of the Virtual Museum, and also the database assembled by the previous JRS funded project, which was led by Professor Michael Samways and Dr KD Dijkstra.

Phenology

Further Resources

The use of photographs by John Wilkinson and Walter Neser is acknowledged.

Graceful Slim Aciagrion gracile (Sjöstedt, 1909)

Other common names: Emerald-striped Slim (Alt. English); Sierskraaltjie (Afrikaans)

Recommended citation format: Loftie-Eaton M; Navarro R; Tippett RM; Underhill L. 2025. Graceful Slim Aciagrion gracile. Biodiversity and Development Institute. Available online at https://thebdi.org/2020/03/03/graceful-slim-aciagrion-gracile/

References: Tarboton, M; Tarboton, W. (2019). A Guide to the Dragonflies & Damselflies of South Africa. Struik Nature.

Samways, MJ. (2008). Dragonflies and Damselflies of South Africa. Pensoft

Samways, MJ. (2016). Manual of Freshwater Assessment for South Africa: Dragonfly Biotic Index. Suricata 2. South African National Biodiversity Institute, Pretoria

Similar Species

Common Threadtail (Elattoneura glauca)

Cover photos by Alan Manson.

Find the Common Threadtail in the FBIS database (Freshwater Biodiversity Information System) here.

Family Platycnemididae

Identification

Common Threadtail Elattoneura glauca – Male
Sodwana Bay, KwaZulu-Natal
Photo by Ryan Tippett

Small size

Length up to 39mm; Wingspan attains 46mm

Male Common Threadtails are recognised by their elongate and slender build, grey-blue, black and white colouration, and by their turquoise eyes.

Females are easily confused with those of Elattoneura frenulata (Sooty Threadtail). In areas of overlap the two are best told by their association with the males.

Click here for more details on identification.

Common Threadtail Elattoneura glauca – Female
Ndumo Game Reserve, KwaZulu-Natal
Photo by Ryan Tippett

Habitat

The Common Threadtail inhabits rank bush and grass alongside rivers and streams. It is usually found among tall grass in shady areas near the water. The Common Threadtail is most often associated with slow-flowing water. Individuals, especially females, can at times be found further from water, in thickets and other rank growth.

Habitat – Pongola River, KwaZulu-Natal
Photo by Ryan Tippett

Behaviour

The Common Threadtail is sluggish and often reluctant to fly. Females are frequently found alongside the males. The Common Threadtail most often perches low down among grass stems where it remains inconspicuous.

The Common Threadtail is active from September to April, but flies all year round at many sites (See Phenology below).

Common Threadtail Elattoneura glauca – Male
Amakhosi Game Reserve, KwaZulu-Natal
Photo by Ryan Tippett

Status and Conservation

Elattoneura glauca is a common species throughout its range. The Common Threadtail is listed as of Least Concern in the IUCN Red List of Threatened Species. This species is quite resistant to habitat change and frequently makes use of man-made habitats.

Common Threadtail Elattoneura glauca – Female
Amakhosi Game Reserve, KwaZulu-Natal
Photo by Ryan Tippett

Distribution

The Common Threadtail is native to the southern half of the African continent, where it is widespread, avoiding only the driest regions.

Common Threadtail Elattoneura glauca – Male
iXopo district, KwaZulu-Natal
Photo by Ryan Tippett

Below is a map showing the distribution of records for Common Threadtail in the OdonataMAP database as at February 2020.

Below is a map showing the distribution of records for Common Threadtail in the OdonataMAP database as of December 2024.

The next map below is an imputed map, produced by an interpolation algorithm, which attempts to generate a full distribution map from the partial information in the map above. This map will be improved by the submission of records to the OdonataMAP section of the Virtual Museum.

Ultimately, we will produce a series of maps for all the odonata species in the region. The current algorithm is a new algorithm. The objective is mainly to produce “smoothed” maps that could go into a field guide for odonata. This basic version of the algorithm (as mapped above) does not make use of “explanatory variables” (e.g. altitude, terrain roughness, presence of freshwater — we will be producing maps that take these variables into account soon). Currently, it only makes use of the OdonataMAP records for the species being mapped, as well as all the other records of all other species. The basic maps are “optimistic” and will generally show ranges to be larger than what they probably are.

These maps use the data in the OdonataMAP section of the Virtual Museum, and also the database assembled by the previous JRS funded project, which was led by Professor Michael Samways and Dr KD Dijkstra.

Common Threadtail Elattoneura glauca – Male
Near Pongola, KwaZulu-Natal
Photo by Ryan Tippett

Phenology

Common Threadtail Elattoneura glauca – Male
Gamka River, Western Cape
Photo by Ryan Tippett

Further Resources

The use of photographs by Alan Manson is acknowledged. All other photographs by Ryan Tippett.

Common Threadtail Elattoneura glauca (Selys, 1860)

Other common names: Gewone Draadstertjie (Afrikaans)

Recommended citation format: Loftie-Eaton M; Navarro R; Tippett RM; Underhill L. 2025. Common Threadtail Elattoneura glauca. Biodiversity and Development Institute. Available online at https://thebdi.org/2020/03/03/common-threadtail-elattoneura-glauca/

References: Tarboton, M; Tarboton, W. (2019). A Guide to the Dragonflies & Damselflies of South Africa. Struik Nature.

Samways, MJ. (2008). Dragonflies and Damselflies of South Africa. Pensoft

Samways, MJ. (2016). Manual of Freshwater Assessment for South Africa: Dragonfly Biotic Index. Suricata 2. South African National Biodiversity Institute, Pretoria

Martens, A; Suhling, F. (2007). Dragonflies and Damselflies of Namibia. Gamsberg Macmillan.

Common Threadtail Elattoneura glauca – Pair
Wilge River, Free State
Photo by Ryan Tippett

Similar Species

Southern Fingertail (Gomphidia quarrei)

Cover photo by Gregg Darling.

Find the Southern Fingertail in the FBIS database (Freshwater Biodiversity Information System) here.

Family Gomphidae

Identification

Southern Fingertail Gomphidia quarrei – Male
Kosi Bay, KwaZulu-Natal
Photo by Ryan Tippett

Large size

Length up to 61mm; Wingspan reaches 75mm.

The Southern Fingertail is a striking and boldly marked yellow and black species.

It most resembles the Common Tigertail (Ictinogomphus ferox) but the Southern Fingertail is noticeably smaller and with a more slender build. Additionally, the Southern Fingertail lacks foliations on the terminal segments of the abdomen.

Females closely resemble the males but have more robust abdomens.

Click here for more details on identification of the Southern Fingertail.

Southern Fingertail Gomphidia quarrei – Female
Kosi Bay, KwaZulu-Natal
Photo by Ryan Tippett

Habitat

The Southern Fingertail frequents rivers and streams in hot, low lying savanna and forest regions. They require reed-lined and/or wooded banks for perching on. They are not reliant on rocky stretches of river and appear to favour shallow, flowing water over sand. Non-breeding individuals can often be found in grassy clearings within a hundred or so meters of the river.

Typical habitat with shallow, slow-flowing water over sand.
Ndumo Game Reserve, KwaZulu-Natal
Photo by Ryan Tippett

Behaviour

The Southern Fingertail is a perch hunter. They return to their perch after each foray to chase down prey or a potential rival. The flight is swift and agile. Territorial males often perch low down on vegetation overhanging the water. At other times and especially during the heat of the day the Southern Fingertail can be found away from the water on trees and bushes above the riverbank. Females and non-breeding males are often found further away from the river.

The Southern Fingertail is most active from November to February (see Phenology below)

Southern Fingertail Gomphidia quarrei – Male
Ndumo Game Reserve, KwaZulu-Natal
Photo by Ryan Tippett

Status and Conservation

The Southern Fingertail is an uncommon and localised species and its presence, even at known sites, is erratic. Due to its marginal occurrence within South Africa, Gomphidia quarrei is listed as Vulnerable in the IUCN Red List of Threatened Species. It is listed globally as of Least Concern as it has a wide distribution within the rest of Africa. The Southern Fingertail is sensitive to habitat degradation and, for the most part, occurs only in undisturbed habitats.

Southern Fingertail Gomphidia quarrei – Female
Kosi Bay, KwaZulu-Natal
Photo by Ryan Tippett

Distribution

The Southern Fingertail is widely distributed over much of Central and East Africa. Its range extends into South Africa where it is restricted to the warmer northern and eastern regions in Limpopo, Mpumalanga, and northern KwaZulu-Natal.

Below is a map showing the distribution of records for the Southern Fingertail. Taken from the OdonataMAP database as at February 2020.

Below is a map showing the distribution of records for the Southern Fingertail. Taken from the OdonataMAP database as at December 2024.

The next map below is an imputed map, produced by an interpolation algorithm, which attempts to generate a full distribution map from the partial information in the map above. This map will be improved by the submission of records to the OdonataMAP section of the Virtual Museum.

Ultimately, we will produce a series of maps for all the odonata species in the region. The current algorithm is a new algorithm. The objective is mainly to produce “smoothed” maps that could go into a field guide for odonata. This basic version of the algorithm (as mapped above) does not make use of “explanatory variables” (e.g. altitude, terrain roughness, presence of freshwater — we will be producing maps that take these variables into account soon). Currently, it only makes use of the OdonataMAP records for the species being mapped, as well as all the other records of all other species. The basic maps are “optimistic” and will generally show ranges to be larger than what they probably are.

These maps use the data in the OdonataMAP section of the Virtual Museum, and also the database assembled by the previous JRS funded project, which was led by Professor Michael Samways and Dr KD Dijkstra.

Southern Fingertail Gomphidia quarrei
Kosi Bay, KwaZulu-Natal
Photo by Ryan Tippett

Phenology

The next two graphs shows how the occurrence of Southern Fingertail varies within the year, i.e. the phenology. There are 50 records in the database for this species, so these results are still likely to change as the same size increases. The first plot shows the number of records in each pentade, five-day periods, which start on 1 July and end on 30 June the following year. The maximum number of records is at the beginning of December, with 12 records. The blue line is generated by a smoother, an algorithm which aims to separate the “signal” from the “noise”, and shows the pattern of seasonality for this species. The second plot shows only the blue line, and it is scaled to lie between zero and one, for easy comparison between species.

This phenology plot shows that the Southern Fingertail has a short flight period, lasting about three months, from November through to January, with a December peak.

We are needing lots more records of Southern Fingertails in OdonataMAP to help confirm the seasonality of this species. If you live anywhere within its large range, please be alert from October to February, and submit records to OdonataMAP. The number of records throughout the flight period, even during the December peak, needs to be increased.

Southern Fingertail Gomphidia quarrei – Male
Kosi Bay, KwaZulu-Natal
Photo by Ryan Tippett

Further Resources

The use of photographs by Gregg Darling is acknowledged. Other photographs by Ryan Tippett.

Southern Fingertail Gomphidia quarrei (Schouteden, 1934)

Other Common Names: Quarre’s Fingertail (Alt. English); Suidelike Vingerstert (Afrikaans).

Recommended citation format: Loftie-Eaton M; Navarro R; Tippett RM; Underhill L. 2025. Southern Fingertail Gomphidia quarrei. Biodiversity and Development Institute. Available online at https://thebdi.org/2020/03/02/southern-fingertail-gomphidia-quarrei/

References: Tarboton, M; Tarboton, W. (2019). A Guide to the Dragonflies & Damselflies of South Africa. Struik Nature.

Samways, MJ. (2008). Dragonflies and Damselflies of South Africa. Pensoft

Samways, MJ. (2016). Manual of Freshwater Assessment for South Africa: Dragonfly Biotic Index. Suricata 2. South African National Biodiversity Institute, Pretoria

Martens, A; Suhling, F. (2007). Dragonflies and Damselflies of Namibia. Gamsberg Macmillan.

Southern Fingertail Gomphidia quarrei – Male
Kosi Bay, KwaZulu-Natal
Photo by Ryan Tippett

Similar Species