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Utricularia biceps (Lentibulariaceae), a new carnivorous species endemic to the campos rupestres of Brazil

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Utricularia biceps (Lentibulariaceae), a new species belonging to U. sect. Foliosa, is here described and illustrated. This new species is endemic to the campos rupestres of eastern Brazil, an extremely biodiverse and endangered vegetation. Notes on phenology, ecology, habitat, and conservation are provided, along with a discussion on the features that distinguish this species from the other taxa of the genus. The recent discovery of this and many other new species in the Botumirim region, in northern Minas Gerais, highlight this area as a priority for biodiversity conservation and emphasize the importance of extensive studies on the flora of the region. Resumo Utricularia biceps (Lentibulariaceae), uma nova espécie pertencendo a U. sect. Foliosa, é aqui descrita e ilustrada. Essa nova espécie é endêmica dos campos rupestres do leste do Brasil, uma vegetação extremamente biodiversa e ameaçada. Notas sobre fenologia, ecologia, habitat e conservação são providos, junto com uma discussão sobre as características que distinguem essa espécie das demais do gênero. A descoberta recente desta e de outras espécies novas na região de Botumirim, no norte de Minas Gerais, destacam essa área como prioritária para a conservação da biodiversidade e enfatizam a necessidade de estudos extensivos da flora da região.
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Phytotaxa 376 (5): 214–222
http://www.mapress.com/j/pt/
Copyright © 2018 Magnolia Press Article PHYTOTAXA
ISSN 1179-3155 (print edition)
ISSN 1179-3163 (online edition)
214 Accepted by Andreas Fleischmann: 9 Nov. 2018; published: 21 Nov. 2018
https://doi.org/10.11646/phytotaxa.376.5.4
Utricularia biceps (Lentibulariaceae), a new carnivorous species endemic to the
campos rupestres of Brazil
PAULO MINATEL GONELLA1,* & PAULO CÉSAR BALEEIRO2
1 Universidade Federal dos Vales do Jequitinhonha e Mucuri, Diamantina, MG, Brazil.
2 National Herbarium of New South Wales, Mrs Macquaries Road, Sydney, NSW 2000, Australia.
* Author for correspondence. E-mail: paulogonella@uol.com.br
Abstract
Utricularia biceps (Lentibulariaceae), a new species belonging to U. sect. Foliosa, is here described and illustrated. This
new species is endemic to the campos rupestres of eastern Brazil, an extremely biodiverse and endangered vegetation. Notes
on phenology, ecology, habitat, and conservation are provided, along with a discussion on the features that distinguish this
species from the other taxa of the genus. The recent discovery of this and many other new species in the Botumirim region,
in northern Minas Gerais, highlight this area as a priority for biodiversity conservation and emphasize the importance of
extensive studies on the flora of the region.
Key-words: carnivorous plants, conservation, Eudicots, Lamiales, taxonomy
Resumo
Utricularia biceps (Lentibulariaceae), uma nova espécie pertencendo a U. sect. Foliosa, é aqui descrita e ilustrada. Essa
nova espécie é endêmica dos campos rupestres do leste do Brasil, uma vegetação extremamente biodiversa e ameaçada.
Notas sobre fenologia, ecologia, habitat e conservação são providos, junto com uma discussão sobre as características
que distinguem essa espécie das demais do gênero. A descoberta recente desta e de outras espécies novas na região de
Botumirim, no norte de Minas Gerais, destacam essa área como prioritária para a conservação da biodiversidade e enfatizam
a necessidade de estudos extensivos da flora da região.
Palavraschave: conservação, Eudicotiledôneas, Lamiales, plantas carnívoras, taxonomia
Introduction
The campos rupestres (rupestrian fields) of eastern Brazil host around 15% of the Brazilian flora in less than 1% of
the national territory with high levels of endemism, representing an important hotspot of biodiversity (Silveira et al.
2016). The campos rupestres’ core area is centered on the Espinhaço Range, a mountain chain that stretches for over
1.200 km from central Minas Gerais (SE Brazil) to northern Bahia (NE Brazil). Acknowledging the great biodiversity
and importance of the natural resources of these highlands, in 2005 its southernmost portion in Minas Gerais was
recognized by UNESCO as a Biosphere Reserve (UNESCO 2018). Despite having been left out of this Reserve, the
northern portion of the Espinhaço Range in Minas Gerais, (placed at the ecotone of three major Brazilian biomes, the
Caatinga, Cerrado and Atlantic Forest) is also extremely rich in biodiversity and natural resources, representing an
important conservation priority.
The acidic and impoverished soils of the campos rupestres are home to one of the greatest biodiversity of carnivorous
plants in the Neotropics, with 21 species of Drosera (Droseraceae), four species of Philcoxia (Plantaginaceae; the
remaining three out of the seven known species of this newly discovered carnivorous genus occur in the Cerrado
vegetation), 13 species of Genlisea, and at least 32 species of Utricularia (Lentibulariaceae) (Gonella 2018; Fleischmann
2012; Scatigna 2018; Flora do Brasil 2020 under construction).
Utricularia is a cosmopolitan genus currently comprising around 250 species, with an important center of diversity
in the Neotropics (Ellison & Adamec 2018). Of the 64 species recorded for Brazil, 16 are endemic to the country
SPECIES OF UTRICULARIA BICEPS (LENTIBULARIACEAE) Phytotaxa 376 (5) © 2018 Magnolia Press 215
(Flora of Brazil 2020 under construction). The genus presents a wide array of life forms, including aquatic, terrestrial,
lithophytic, epiphytic, and rheophytic species, and can be easily recognized by the presence of bladder-like traps that
capture prey by suction, the utricles (Taylor 1989).
During field expeditions to study the carnivorous flora of the campos rupestres of the northern Espinhaço Range
in Minas Gerais, a remarkable species of Utricularia was discovered, which is here described as new.
Material & Methods
Field surveys were carried out by the first author in February and September 2011. No preceding herbarium collections
of the taxon are known. Another later specimen collected and provided by Carlos Rohrbacher and deposited at SPF
was also studied. The specimens were examined under a stereo dissecting microscope and the description was based on
fresh, dried and spirit material. Morphological terminology and description structure follow Taylor (1989). Herbarium
abbreviations cited through the text follow Thiers (2018).
Informal conservation status category was assessed by range size (B criterion), following IUCN Standards and
Petitions Subcommittee (2016) recommendations. The extent of occurrence (EOO) and area of occupancy (AOO)
were estimated using GeoCAT (Bachman et al. 2011).
Taxonomic Treatment
Utricularia biceps Gonella & Baleeiro, sp. nov. (Figures 1 and 2)
Type—BRAZIL. Minas Gerais, Botumirim, Rio do Peixe, 10 February 2011, Gonella et al. 376 (holotype SPF!).
Diagnosis—Species most similar to Utricularia tricolor A.St.-Hil., but distinguished by the corolla lower lip with a prominent bilobed
crest with tuberculate texture on the gibbose palate, a spur with apex swollen and bifid, about the same length of the lower lip, the
upper lip of the stigma with ciliate apex, ovoid seeds, and with trap appendages emerging from a flat extension in the apical portion
of the trap mouth.
Description—Medium-sized perennial, terrestrial. Rhizoids few, filiform, with simple short branches, up to 1 cm
long, c. 0.2 mm thick. Stolons few, filiform, sparsely branched, up to 6 cm long, c. 0.2 mm thick. Leaves few, 1–4
rosulate at the base of the peduncle, petiolate, lamina obovate with apex rounded, green to red in color, with numerous
anastomosing nerves, 5–20 × 1.5–4.0 mm. Traps numerous on the stolons, broadly ovoid, on stalk of c. 1.5 mm length,
c. 1 × 1 mm, mouth basal, with a pair of appendages emerging from a flat extension in the apical portion of the trap
mouth, apex of appendages acute, distal end of the stalk with a distinct swelling, inner surfaces of appendages and the
distal end of the stalk densely covered with fine, distally inflexed, gland-tipped hairs. Inflorescence a raceme, erect,
simple, solitary, 12.0–31.5 cm long; peduncle filiform, terete, glabrous, 0.5–0.8 mm thick, deep red in color. Scales,
bracts and bracteoles basifixed and single-nerved. Scales few, ovate-deltoid, with apex acute, 0.6–1.2 mm long. Bracts
ovate-deltoid, with apex acute, 1.0–1.2 × 0.3–0.5 mm. Bracteoles linear-subulate, slightly shorter than and basally
connate for half to 2/3 of length to the bract, with apex acute, 0.8–1 × 0.1–0.2 mm. Flowers 2–7; pedicel ascending,
filiform, terete, 4–15 mm long (longer towards the base of the inflorescence), c. 0.2 mm in diam. Calyx lobes unequal,
upper lobe longer than the lower lobe, glabrous, with few simple parallel nerves, red to greenish-red in color; upper
lobe broadly ovate with apex rounded, strongly convex, 2.0–2.2 × 1.5–1.8 mm, firm in texture with a narrow hyaline
margin; lower lobe convex, ovoid, with apex sub-acute or minutely bifid, 1.7–2.0 × 1.5–1.6 mm. Corolla violet, with
yellow-orange crest at the base of the lower lip, minutely papillose, 8–10 mm long; upper lip oblong-ovate 3–4 × 3
mm, apex rounded; lower lip transversally elliptic, shallowly 3 lobed, with a prominent yellow-orange bilobed crest at
the palate with tuberculate texture, 5.5–7.0 × c. 9 mm; spur cylindrical, narrow at the base and swollen at the mid-apex,
apex bifid, slightly shorter than or equal in length to the lower lip, c. 2 mm in diam., 5–6 mm long. Filaments curved, c.
0.7 mm long, the anther thecae subdistinct, anther c. 0.7 × 0.3 mm. Ovary globose, glandular, 0.7 mm long; style short,
0.3 mm long; stigma bilabiate, lower lip semicircular, 0.5 mm long, with apex ciliate, upper lip truncate, 0.2 mm long.
Capsule globose, to 2 mm in diam., shorter than the calyx lobes, dorsiventrally bivalvate. Seeds ovoid, reticulated in a
helical arrangement relative to the longer axis of the seed, testa cells elongate, 0.35 × 0.20 mm.
Additional specimens examined (paratypes)—BRAZIL. Minas Gerais, Botumirim, Rio do Peixe, 06 September
2011, Gonella et al. 466 (SPF); 18 July 2015, Rohrbacher 15 (SPF).
GONELLA & BALEEIRO
216 Phytotaxa 376 (5) © 2018 Magnolia Press
FIGURE 1. Utricularia biceps. A, habit. B, utricle, side view. C, bract and bracteoles. D, calyx. E, corolla, front view. F, spur. G, stamen.
H, gynoecium. I, fruit, side view. J, seed. A–H based on the holotype; I–J based on Gonella et al. 466. Illustration by PMG.
Etymology—from the Latin biceps (two-headed), referring to the most remarkable characteristics of the species,
the crest on the palate with two protruded lobes, and also the spur with bifid apex (Figs. 1E,F; 2E–G).
SPECIES OF UTRICULARIA BICEPS (LENTIBULARIACEAE) Phytotaxa 376 (5) © 2018 Magnolia Press 217
FIGURE 2. Utricularia biceps. A, general view of the habitat at Rio do Peixe, Botumirim. B, inflorescence. C, immature fruit, side
view. D, leaves and inflorescence bases. E, flower, front view. F, flower, side view, highlighting the projected bilobed crest on the palate
with tuberculate texture. G, flower seen from below, highlighting the spur with bifid apex (top center), and dorsal sepal seen from above
(bottom right). All by PMG.
Phenology—The species was collected with flowers in February and July and flowers and fruits in September. In
cultivation, the species flowers in the spring and fall, but no seed production was observed (C. Rohrbacher, pers.com.).
GONELLA & BALEEIRO
218 Phytotaxa 376 (5) © 2018 Magnolia Press
Distribution and habitatUtricularia biceps is only known from a single location, where it grows on the
margin of a perennial river on islands of vegetation over quartzitic rocks or on cracks of the same rock, in sandy soil
with organic matter (Fig. 2A, D). It was only observed growing on the north-facing margin of the river, at elevations
around 790 m.
The species is sympatric with the white and the lilac flowered forms of U. amethystina Salzm. ex Saint-Hilaire
& Girard (1838: 870), U. tricolor Saint-Hilaire (1833: 418), U. subulata Linnaeus (1753: 18), U. nana Saint-Hilaire
& Girard (1838: 869), U. nervosa Weber ex Benjamin in Martius (1847: 247), U. gibba Linnaeus (1753: 18), U.
tenuissima Tutin (1934: 334), U. purpureocaerulea Saint-Hilaire & Girard (1838: 869), Genlisea repens Benjamin in
Martius (1847: 254), G. aurea Saint-Hilaire (1833: 429) var. minor (Saint-Hilaire 1833: 430) Fleischmann (2012: 525)
and several Drosera spp. (Droseraceae).
Conservation status—Critically Endangered (CR B2abiii). Utricularia biceps presents an AOO (area of
occurrence) equal to 4 km2, being considered critically endangered based on the IUCN criterion “AOO less than 10
km2, number of locations equal to one and continuing decline of the quality of the habitat”. The occurrence of this
species lies within a recently created conservation unit, the Botumirim State Park (Decreto No 302, 04 July 2018).
However, the area where the species was found is used by tourists as a recreational spot, due to its crystal clear waters
and scenic landscapes (Fig. 2A). Incorrect management of the recreational use of this area could pose a threat through
trampling and pollution of soil and water, potentially having a negative impact on the fragile habitat in the short
term.
Taxonomic notesUtricularia biceps belongs to Utricularia sect. Foliosa Kamiénsky (1891: 120), characterized
by the traps broadly ovate with a basal mouth and two dorsal appendages, and capsule dorsiventrally bivalvate (Taylor
1989). The species of the section can be further recognized by the bracts and bracteoles proximally connated. The
section traditionally included three species, but U. amethystina is clearly a species complex composed by numerous
taxa, which were tentatively united by Taylor (1989) under that name justified by the presence of intermediate forms
between the morphotypes. A morphometric approach, however, has corroborated the segregation of synonyms and new
species currently under U. amethystina (Baleeiro et al. 2016), and the group is currently under taxonomic revision by
Baleeiro et al. (in prep.). All accepted taxa and synonyms within this complex were analyzed and none represent the
newly described taxon.
Molecular phylogenetic studies suggested the merger of a paraphyletic U. sect. Psyllosperma Taylor (1986: 8)
within a more broadly circumscribed U. sect. Foliosa (Jobson et al. 2003; Müller & Borsch 2005). This hypothesis,
however, was based on analysis with insufficient taxon sampling and also on the position of a misidentified voucher of
U. huntii Taylor (1986: 8), which actually represents a taxon in the U. amethystina complex [Rivadavia-Lopes & Sato
1000 (SPF!)]. Unpublished phylogenetic studies (Baleeiro et al. in prep.), based on a broader taxon sampling, support
a monophyletic U. sect. Psyllosperma, sister to a monophyletic U. sect. Foliosa, a phylogenetic placement we follow
here.
Utricularia biceps grows sympatric with two other species of U. sect. Foliosa: U. tricolor and two distinctive taxa
currently assigned as morphotypes of a variable U. amethystina s.l. (sensu Taylor 1989). Like U. biceps, U. tricolor also
presents transversally elliptic and shallowly 3-lobed corolla lower lobe, but can be easily distinguished by the conical
spur, which is much longer than the lower lip and with a single, acute apex (as in all other species of the section). The
sympatric morphotypes of U. amethystina can be distinguished by the deeply 3-lobed lower lip with a long conical spur
(lilac form) or by the white corolla color, with a very short lower lip, broadly conical spur, and densely glandular-pilose
indumentum on spur and calyx (white form). Furthermore, these two species lack the tuberculate crest on the palate,
having only an inflated palate with papillose texture.
The two projections with tuberculate texture of U. biceps are a novel character described for U. sect. Foliosa.
This is similarly observed in U. geminiloba Benjamin in Martius (1847: 242) and most remarkably in U. nephrophylla
Benjamin in Martius (1847: 247) of U. sect. Orchidioides A.DC. in DeCandolle (1844: 23) (U. sect. Iperua Taylor
(1986: 10) sensu Taylor 1989), which present a swelled bilobed palate, each lobe with a rugose crest.
The upper lip of the stigma with ciliate margin is also a new character for U. sect. Foliosa. Although not cited in
the description, Taylor (1989) illustrates a pilose stigma for U. hispida Lamarck (1791: 50), of U. sect. Psyllosperma,
but in the illustration, the trichomes are distributed along the surface of the upper lip and not exclusively on the margin,
as in U. biceps.
Unlike all other species of U. sect. Foliosa, the two appendages of the trap originate from a flat extension in the
apical portion of the mouth (Fig. 1B), while in all other species the appendages are free from the base, representing
another new character among the taxa of this section.
Seeds of U. biceps are very distinct from those of the other species of U. sect. Foliosa, presenting an ovoid shape
SPECIES OF UTRICULARIA BICEPS (LENTIBULARIACEAE) Phytotaxa 376 (5) © 2018 Magnolia Press 219
(Fig. 1J), while seeds are narrowly cylindrical in U. tricolor and U. tridentata Sylvén (1909: 28), and obliquely ovoid
to narrowly cylindrical in the U. amethystina complex. It shares with U. amethystina the rows of testa cells markedly
helically arranged relative to the longer axis of the seed. The seeds studied were harvested from unripe fruits from a
herbarium specimen, which could explain the disparate seed shape observed. No seeds were produced in cultivation
(C.Rohrbacher, pers.comm.).
Within U. sect. Foliosa, U. biceps presents the most restricted distribution, being microendemic to the Rio do Peixe
area, in the municipality of Botumirim. The other three taxa included under U. sect. Foliosa in the circumscription
of Taylor (1989) are widely distributed across South America and even Central and North America in the case of U.
amethystina. Utricularia tricolor is widely distributed across South America, from Argentina to Venezuela, whereas
U tridentata is restricted to southeastern South America, in the Brazilian states of Rio Grande do Sul, Santa Catarina,
Paraná, and Rio de Janeiro, as well as Uruguay and Argentina (Taylor 1989; Flora of Brazil 2020 under construction). On
the other hand, in the broad circumscription of Taylor (1989), U. amethystina is widely distributed across tropical and
sub-tropical America, from Florida in the United States to São Paulo, in southeastern Brazil. Such a wide distribution
of U. amethystina, however, may be a result of its broad circumscription, including a wide range of polymorphism
(Taylor 1989). Baleeiro et al. (2016) started to dissect this species complex using a morphometric approach and
showed that some of the taxa synonymized under U. amethystina may be resurrected and even undescribed species are
hidden under this name.
Discussion
Thanks to the recent discovery of a new record of the critically endangered blue-eyed ground-dove (Columbina
cyanopis Pelzeln, 1870; Aves: Columbidae) in the Botumirim region (Bessa et al., in prep.), the area received great
public attention, which pressured the state government to protect the area, and culminated in the recent creation of a
conservation unit at the state level (Decreto No 302, 04 July 2018).
Besides its natural resources and scenic beauty, the Botumirim area is also home to a great number of endemic and
endangered plant species described over the last few decades, including Paepalanthus multistelaris Andrino & Sano in
Andrino et al. (2017: 56) (Eriocaulaceae), Philcoxia rhizomatosa Scatigna & V.C.Souza in Scatigna et al. (2015: 276)
(Plantaginaceae), Psyllocarpus scatignae Carmo, Sobrado & R.M.Salas in do Carmo et al. (2018: 587) (Rubiaceae),
Schefflera botumirimensis Fiaschi & Pirani (2005: 117) (Araliaceae), Vellozia armata Mello-Silva (1996: 258)
(Velloziaceae), Habranthus botumirimensis R.S. Oliveira in Oliveira & Sano (2009: 538) (Amaryllidaceae), Cantinoa
nanuzae Harley (2014: 9530) (Lamiaceae), Sauvagesia bryoclada Queiroz-Lima & D.B.O.S.Cardoso in Queiroz-Lima
et al. (2018: 222) (Ochnaceae), Cardiospermum cristobaliae Ferrucci & Urdampilleta (2011: 479) (Sapindaceae), and
Drosera graomogolensis Silva (1997: 85) (Droseraceae). Less charismatic animal species (compared to the dove)
were also recently described from this area, such as the frog Hypsiboas botumirim (Anura: Hylidae; Caramaschi et al.
2009), and the fish Microlepidogaster discus (Siluriformes: Loricariidae; Martins et al. 2014). Despite the description
of so many new species in recent years, the surroundings of Botumirim are still very poorly explored scientifically,
highlighting the urgent need for more extensive studies in the region.
In these unfavorable times for the study and conservation of Brazilian biodiversity, when Brazil’s government
threatens to undermine the country’s research by successive cuts in funding (Fernandes et al. 2017), by passing legislation
that hinders taxonomic studies (Alves et al. 2018; Bockmann et al. 2018), and with an even more uncertain future in
the next administration that seeks to promote agricultural and industrial expansion at the expense of environmental
protections (Tollefson 2018), it is important to recognize the relevance of basic science such as taxonomy for the
conservation of the megadiverse Brazilian flora and fauna. It is also important to acknowledge the involvement of
public society in the protection of sensitive areas for the conservation of flora, fauna and hydric resources, such as with
the Botumirim region.
Throughout its range, the campos rupestres are threatened by the expansion of farming, mainly cattle ranching,
mining, uncontrolled anthropic fires, and biological invasion, especially of African grasses introduced for livestock
feeding. In the northern portion of the Espinhaço Range in Minas Gerais, Eucalyptus plantations are especially
threatening, transforming not only the landscape but destroying the campos rupestres topsoil. And last but not least,
the vegetation is further threatened by climate change, which threatens to reduce its suitable area by up to 95% until
the end of the century (Fernandes et al. 2014).
Current conservation units and legislation are far from ideal for protecting the biodiversity of the Espinhaço
GONELLA & BALEEIRO
220 Phytotaxa 376 (5) © 2018 Magnolia Press
Range (Silva et al. 2008), lacking government support, with most units still not having their territories expropriated,
and/or lacking administrative and physical infrastructure (Echternacht et al. 2011). Given the low resilience of campos
rupestres vegetation and the difficulty in restoration of degraded areas (Le Stradic et al. 2014), urgent protection is a
high priority, including specific legislation to help prevent their decline. In this context, with the lawful creation of the
new conservation unit of Botumirim, it is now important that it be properly implemented, funded, and managed. The
involvement of society is once again crucial, actively supervising the implementation and management of the new park
so that it can effectively protect its unique biodiversity.
Acknowledgements
We would like to thank Fernando Rivadavia, Paulo Sano, Carlos Rohrbacher, Nílber Silva, Jonathan Santos, Rui Alves,
and Adilson Peres for field assistance; Caroline Andrino for aid in gathering literature about the new species from
Botumirim; Carlos Rohrbacher for sharing his observations on cultivated material and providing herbarium specimens
of the new species; Eduardo Gomes for valuable regional data of the recently created Botumirim park; Viviane Jono
and Roberta Figueiredo from SPF; Caroline Andrino, Fernando Rivadavia, Andreas Fleischmann, and Jan Schlauer for
critical comments and suggestions on the manuscript. During fieldwork, PMG received a scholarship from Conselho
Nacional de Desenvolvimento Científico e Tecnológico (CNPq) and financial support from the Coordenação de
Aperfeiçoamento de Pessoal de Nível Superior (CAPES).
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... (Souza & Paula-Souza, 2006). Several rare species that occur in this area were subsequently described (Gonella & Baleeiro, 2018), including the carnivorous bladderwort Utricularia biceps Gonella & Baleeiro (Lentibulariaceae) and Psyllocarpus scatignae Carmo, Sobrado & R.M.Salas (Rubiaceae), which is only known from the same white sand patch where the type specimens of P. rhizomatosa were collected in the municipality of Botumirim (Carmo et al., 2018). ...
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... and U. tridentata Sylvén, and the recently described U. biceps Gonella & Baleeiro. It is considered a natural group restricted to the Neotropical warmer zones with unique trap morphology and capsule dehiscence (bivalvate) among all Utricularia (Taylor, 1989;Gonella & Baleeiro, 2018). ...
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... About 30-40 species (depending on species concepts) have been described after Taylor's monograph (for compiling works, see Fleischmann 2012bFleischmann , 2015Jobson et al. 2018), and the infrageneric classification has undergone a few changes based on molecular phylogenetic data (Jobson et al. 2003;Müller and Borsch 2004). In recent years, several new species have been described or reestablished for the genus in Brazil (Bove 2008;Fleischmann and Rivadavia 2009;Souza and Bove 2011;Baleeiro et al. 2015Baleeiro et al. , 2019Gonella and Baleeiro 2018;Guedes et al. 2019;Baleeiro et al. in prep.), revealing the potential for the discovery of new species even in a genus that had been thoroughly revised taxonomically in the late 20 th century (Taylor 1989). The late botanist Peter Taylor meticulously studied Utricularia for over 40 years, culminating in his elaborate monograph that considered ca. ...
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... No Brasil foram registradas cerca de 84 espécies de Lentibulariaceae, ocorrendo em todos os estados, sendo 28 endêmicas (BFG 2018). As regiões Sudeste e Centro-Oeste foram as que receberam maior atenção até o momento, com mais esforço amostral e trabalhos desenvolvidos, consequentemente apresentam um melhor conhecimento sobre o táxon e sua diversidade (Barroso 1957;Taylor 1980;Fromm-Trinta 1996, 2004Pott & Pott 1997;Rivadavia 2001;Corrêa & Mamede 2002;Araújo et al. 2007Araújo et al. , 2010Sasaki & Mello-Silva 2008;Meyer & Franceschinelli 2010;Ritter et al. 2010;Setubal & Boldrini 2010;Wanderley et al. 2011;Trevisan & Moço 2011;Silva et al. 2011;Andrade & Forzza 2012;Baleeiro & Bove 2011, 2013Baleeiro et al. 2017;Coelho et al. 2017;Freitas et al. 2017;Gonella & Baleeiro 2018). Por outro lado, nas demais regiões a diversidade do grupo é subestimada, especialmente na região Norte (Prance & Johnson 1992;Miranda & Absy 2000;Furtado et al. 2012;Costa et al. 2016;Fleischmann et al. 2017;Mota & Zappi 2018). ...
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Beginning in November 2018, Brazilian legislation regulating access to genetic heritage and associated traditional knowledge will cause a bureaucratic collapse of Biodiversity research in Brazil. Law number 13.123/2015 and Decree 8772/2016 impose severe barriers to basic and applied research, and to international cooperation by introducing mandatory registry of research access to native organisms in Brazil. This legal framework was meant to improve governmental control over systems of biotechnology research using genetic material and associated chemical compounds, which are central points of the Nagoya Protocol (CBD 2011) and the Convention on Biological Diversity (CBD 1992, 2012). However, the requirements imposed by the mandatory registry of research in the new National System for Governance of Genetic Heritage and Associated Traditional Knowledge (SisGen), the system of Material Transfer Agreements (MTAs), and the need to record access to organismal data prior to publication of scientific results or exportation of specimens for scientific research are technically impracticable and not part of the Nagoya Protocol or CBD. These systems have already begun to compromise biodiversity studies and training of human resources in biological sciences, which depend on international partnerships. Biological collections and laboratories based in Brazil will cease to function due to the high operational costs and legal impediments affecting access to national biodiversity by foreigners. On the global scenario, Brazilian science will certainly lose competitiveness. In violation to the Nagoya Protocol (CBD 2011), law number 13.123/2015 does not recognize basic scientific research as a special area that should be fostered and stimulated through streamlined processes. The Nagoya Protocol recommends that parties should “[c]reate conditions to promote and encourage research which contributes to the conservation and sustainable use of biological diversity, particularly in developing countries, including through simplified measures on access for non-commercial research purposes, taking into account the need to address a change of intent for such research” (CBD 2011, Article 8A). Likewise, article 8C stresses the importance of genetic resources for food and agriculture, and their special importance to food safety. While this last recommendation is followed by Decree 8772/2016 (chapter IV), the recommendation for facilitating non-commercial research is ignored. On the contrary, Kafkian bureaucratic restrictions were created. Between 2006 and 2015, CGen (the Brazilian Genetic Resources Council) Resolution 21/2006 exempted basic research in evolution, identification of organisms, epidemiology, and organization of scientific collections from the requirements of prior licensing and data registration for accessing the so-called genetic heritage. The resolution did not exempt researchers from several other licensing and mandatory data registration systems, such as the scientific specimens collecting system (SisBio), export licenses, CITES registration of endangered species, ethical requirements, sanitary vigilance approvals, and permits for scientific expeditions, but was a much-needed respite from the bureaucratic burden imposed by the Government. Most significant among these systems are the permit procedures for collecting of specimens, which already requires complex reporting in the SisBio database. Despite the redundancy of these multiple control systems, the new law revoked CGen Resolution 21/2006 in 2015. The imposed bureaucracy is also retroactive and demands all biology-related research since November 2015 to be regularized by November 2018, and that noncompliant institutions will be liable to substantial fines. The requirement to register hundreds of thousands, and possibly millions, of accesses to organisms will paralyze the functioning of hundreds of laboratories based in Brazilian universities and research institutes. It is worth noting that most basic science researchers in Brazil lack the technical assistance necessary to comply with the new data recording requirements. Long hours, possibly days or months, which are now dedicated to research, curation of collections, and teaching will be deviated to the filling of electronic forms. To illustrate the burden imposed by the new requirements, based on an estimate of the amount of time necessary to register the DNA sequences of Brazilian organisms with data deposited in GenBank since November 2015 (query: Brasil|Brazil NOT Homo sapiens; release date >11/2015; 683.353 sequences) in the current system, Brazilian scientists would spend a total of 7,116 days filling online forms (using a conservative estimate of 5 minutes per entry, working 8 hours a day in front of a computer). This example deals with a single molecular database. Metagenomic studies imply thousands of accessions per sampling. Systematic and inventory research often involve hundreds to thousands of sampled individuals housed in various collections in Brazil and abroad. Compulsory inclusion of all this data into any database prior to publication is a massive waste of time and resources, considering the very fact that the data will be published. In addition to increased bureaucratic burden, the law imposes many restrictive rules to international collaboration in non-commercial research. In its very first paragraph, law number 13.123/2015 prohibits foreign researchers from accessing the Brazilian genetic heritage and associated traditional knowledge without fulfilling significant legal and bureaucratic commitments. This means that curators may no longer show specimens deposited in scientific collections to foreign visiting scientists without prior registration of legal contracts among research institutions. Such binding documents include the need to formally record the access to Brazilian biodiversity components prior to publication of results. The restrictive legislation in Brazil conflicts with global initiatives to foster Biodiversity Sciences. Governments, through the Convention on Biological Diversity, have acknowledged the existence of a “taxonomic impediment” to the sound management of biodiversity (Global Taxonomy Initiative, GTI 2018). The purpose of the GTI is to remove or reduce this taxonomic impediment - in other words, the knowledge gaps in our taxonomic system (including those associated with genetic systems), the shortage of trained taxonomists and curators, and the impact these deficiencies have on our ability to conserve, use and share the benefits of our biological diversity (Global Taxonomy Initiative 2018). Brazil is a signatory country of the United Nations Convention on Biodiversity (CBD 1992). Article 12 of the CBD emphasizes the need for scientific and technical research, education and training in measures for identification, conservation, and sustainable use of biological diversity. This is a massive task involving thousands of researchers and students. Article 15 of the CBD recognizes the sovereign rights of states over their natural resources and the need to create renditions to facilitate access to genetic resources for environmentally sound uses by other Contracting Parties and not to impose restrictions that run counter to the objectives of the CBD. Recommendations of the eighth meeting of the United Nations Conference of the Parties to the Convention on Biological Diversity COP8 Biodiversity and Systematics workshop and the associated meeting (CBD 2006) included the duplication of support to taxonomy and its infrastructure at the local, national and global levels. The Guiding principles for the drafting of a policy for collections management, research and dissemination of Brazilian Biodiversity Information (CBD 2006) also included the need for international collaboration, a significant expansion of inventory effort, independent and autonomous production of knowledge within the areas of expertise of the researchers and their institutions, and autonomous control by institutions over their collections and associated specimen-based information, over database development for collections-management purposes and over their specimen and information exchange policies. After becoming a Party to the CBD in 1992, Brazil has invested substantial resources to study its biodiversity, improving the vastly underfunded conditions of institutions with biological reference collections, and elaborating a policy for keeping such collections (Peixoto et al. 2006). In 2006, the national research funding agency CNPq, in partnership with Ministry of Science, Technology and Innovation (MCT) and the Coordination for the Improvement of the Higher Education Personnel (CAPES), created the Taxonomy Training Program (PROTAX), in recognition to the imperious need to know the species composition of Brazil and their phylogenetic relationships to preserve national biodiversity (CNPq 2018). CNPq invested US$ 1,735,988,196.00 into scholarships and research projects involving the biological sciences (CNPq 2018). At the state level, the BIOTA-FAPESP Program, launched in 1999 (http://www.fapesp.br/biota/), became a benchmark of organized effort to know, map and analyze the biodiversity of the State of São Paulo, including its fauna, flora and microorganisms, as well as to evaluate the possibilities of sustainable exploitation and to subsidize the formulation of conservation policies. Consistent with the concern about the need to train new highly-skilled professionals in Biodiversity research, CAPES, in 2011, brought together all graduate courses in botany, ecology, oceanography, zoology, and related fields into a new Biodiversity area (http://capes.gov.br/component/content/article/44-avaliacao/4653-biodiversidade). This effort has resulted in the largest global organization targeting higher education on Biodiversity, currently covering 141 graduate programs. Should the currently used interpretations of the law remain unaltered, the most productive research fields will be the most penalized. The performance of Brazilian Zoology in the global scenario has been substantial, with two universities, USP and UFRJ, leading the rank of the number of published papers worldwide (http://cwur.org/2017/subjects.php#Zoology). Overall, the performance of biodiversity-based research will become unsustainable, undermining all investment made by government agencies. We are currently describing less than half the number of species that become extinct every year. In 2009, the formally described species of the world amounted to about 1.9 million species, with 297,897 plants, 98,998 fungi, 64,788 chordates and 1,359,365 invertebrates and 66,307 microorganisms (Chapman 2009). Arthropods may comprise 80-90% of all species of terrestrial macroorganisms (Stork 2010) and 85-95% of arthropods, invertebrates and microorganisms have yet to be named and described (Hollingsworth 2017). By 2016, the World flora had approximately 374,000 described and accepted plant species, and about 2,000 new species were described annually, with Australia, Brazil, China and New Guinea being the largest contributors (Christenhusz and Byng 2016). These authors noted that the numbers of new plant species being described were declining due to reduction in financial and scientific support for fundamental natural history studies. In Brazil this decline is yet to come and this productive phase is at the brink of collapse due to adverse biodiversity legislation. If we need to know our planet’s species to protect them, we are certainly not doing enough and governmental bureaucracy in Brazil is certainly not helping. The current legal framework has already begun to compromise biodiversity studies, activities of natural history collections, and international cooperation. Minimally, in compliance with Article 8 of the Nagoya Protocol, Brazilian authorities should exempt non-commercial biodiversity research from unnecessary bureaucratic burden through legal mechanisms equivalent to the former CGen Resolution 21/2006.
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