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Cantharellus coccolobae sp. Nov. And Cantharellus garnieri, Two Tropical Members of Cantharellus subg. Cinnabarinus

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Abstract – This paper attributes two more species to Cantharellus subg. Cinnabarinus: the here newly described C. coccolobae, a strict associate of Coccoloba species in subtropical and tropical America, and the New Caledonian C. garnieri. A multigene analysis places both species in a genus phylogeny and their macro- and microscopic features are illustrated and discussed.
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Cryptogamie, Mycologie, 2016, 37 (3): 391-403
©9GD& ~_b`p jTNP _QTZOP QéP^QMéP
_TZ<DGp+C+9<`QJV<M4+pZPP4p9GD&p4#D
Cantharellus coccolobae PSp UTMp
bU_ Cantharellus garnieri4 TQ[ TW[Y%]0" !+!/+WV
T] Cantharellus PNa\p Cinnabarinus
Bart BUYCKa*, Pierre-Arthur MOREAUb, Régis COURTECUISSEb,
Alejandro KONGc, Mélanie ROYd&Valérie HOFSTETTERe
aMuséum National d’Histoire Naturelle, Dépt. Systématique et évolution,
CP 39, ISYEB, UMR 7205 CNRS MNHN UPMC EPHE, 12 Rue Buffon,
F-75005 Paris, France ; email: buyck@mnhn.fr
bUniversité de Lille, LSVF, EA 4483. BP 83, F-59006 Lille cedex, France
cLaboratorio de Biodiversidad, Centro de investigación en Ciencias Biológicas,
Universidad Autónoma de tlaxcala, km 10.5 carretera San Martín
Texmelucan-Tlaxcala, San Felipe Ixtacuixtla, Tlaxcala, 90120 México
dLaboratoire Evolution et Diversité Biologique, Université Paul Sabatier, CNRS,
UMR5174, 118route de Narbonne, 31062 Toulouse Cedex,France
eDepartment of plant protection, Agroscope Changins-Wädenswil Research Station
ACW, Rte De Duiller, CH-1260 Nyon, Switzerland
~aPOQb`O j[ZP SbS^Q bOOQZaNO^P OLT VTQ^ PS^`Z^P OT Cantharellus PNa\p Cinnabarinus= O[^
[^Q^ U^LWJ _^P`QZa^_ C. coccolobae* b POQZ`O bPPT`ZbO^ T] Coccoloba PS^`Z^P ZU PNaOQTSZ`bW
bU_ OQTSZ`bW ~V^QZ`b* bU_ O[^ q^L |bW^_TUZbU C. garnierip~VNWOZ\^U^ bUbWJPZP SWb`^P aTO[
PS^`Z^P ZU b \^UNP S[JWT\^UJ bU_ O[^ZQ Vb`QT) bU_ VZ`QTP`TSZ` ]^bONQ^P bQ^ ZWWNPOQbO^_ bU_
_ZP`NPP^_p
Coccoloba 1 -0W%//+0\ 1 F"[W%,0 1 @+N%][ 1 !S"T%'+\+ Y&J"['+\J 1 T0N[\[!J
vqjlo{i|jvoq
Cantharellus PNa\. Cinnabarinus }NJ`X • hp wT]PO^OO^Q LbP ZUOQT_N`^_
OLT J^bQP b\T 5}NJ`X et alp 9GD@% ]TQ b VTUTS[JW^OZ` bPP^VaWb\^ T] VTPOWJ RNZO^
PVbWW* J^WWTL* TQbU\^* SZUX TQ Q^_ PS^`Z^P* PTV^OZV^P VZK^_ LZO[ WZWb`)SNQSW^ TQ
aQTLUZP[ OTU^P* SbQOZ`NWbQWJ ZU O[^ `bS `^UO^Q* bU_ bWW [bMZU\ SQZU`ZSbWWJ O[ZU)LbWW^_
[JS[bW ^U_ZU\P bU_ baNU_bUO `WbVS `TUU^`OZTUPp ~O O[bO OZV^* O[ZP PNa\^UNP LbP
`TVSTP^_ T] TUWJ ^Z\[O PS^`Z^P bU_ ZO LbP O[^ TUWJ PNa\^UNP NUZOZU\ PS^`Z^P ]QTV
bP VbUJ bP ]TNQ `TUOZU^UOP 5zNQTS^* qTQO[ ~V^QZ`b* ~NPOQbWbPZb bU_ ~]QZ`b ZU`WN_ZU\
ZIEIAI3FI4pq S?9FD 2@D9n B814 9D. 2I-I @I/D >8?9DE 2@D 31HAD913l 2@D ZI;IAI3,
C. variabilicolor }NJ`X • hp wT]PO^OO^Q 5ZU ~QZJbLbUPb et alp 9GD'%* O[^ |[ZU^P^
4#9 }p }NJ`X et al.
C. phloginus Sqfq S@I8 ^ Wqaq [?1 t?9 S@I8 et alp 9GD'%* O[^ ~V^QZ`bU C. corallinus
g1,F=n ]132?FD ^ Nq `8B32D22D4 t?9 g1,F= et alp 9GD&`% bU_ ^M^U b `JS[^WWTZ_ PS^`Z^P
B48: ]I7I9n C. cyphelloides S1@I4I ^ Sq \148A? ts'j$pq
vU O[ZP SbS^Q* O[^ bNO[TQP b__ OLT VTQ^ PS^`Z^P OT O[^ PNa\^UNP NPZU\ b
:1;2?AD9D 3D51D9FD EI2I3D2q P@D ’432 37DF?D3 ?3 2@D YD. fI;DE89?I9 C. garnieri
{N`TNPPT • zJPPbQOp 5ut C. garnierii% TQZ\ZUbWWJ SWb`^_ ZU Cantharellus PNa\p
Cantharellus 5{N`TNPPT et alp 9GG@%p j[^ P^`TU_ ZP [^Q^ U^LWJ _^P`QZa^_ ]QTV O[^
|bQZaa^bU* aNO LZO[ b__ZOZTUbW `TWW^`OZTUP Q^STQO^_ ]QTV r^KZ`T bU_ yWTQZ_b abP^_
TU O[^ PZVZWbQZOJ T] O[^ZQ VTQS[TWT\Z`bW ]^bONQ^Pp
@P6G8DPA P>H @G6E<H7
Morphological data. h;; 3D51D9FDE F8;;DF2?893 .D4D AI2@D4DE H, 2@D ’432 I12@84
bU_ `TWWbaTQbOTQP ZU O[^ SbPO ]^L J^bQPp ~WW `ZO^_ PS^`ZV^UP bQ^ _^STPZO^_ bO O[^
:,F8;8A?FI; @D4HI4?1: 8B 2@D WI4?3* YI214I; `?3284, Z13D1: tWfp 19;D33 ?9E?FI2DE
TO[^QLZP^p rZ`QTP`TSZ` ]^bONQ^P L^Q^ ^KbVZU^_ bU_ PX^O`[^_ aJ }p }NJ`X NPZU\ b
`bV^Qb WN`Z_b P^ONSp oQZ\ZUbW _QbLZU\P ]TQ bWW ^W^V^UOP T] O[^ [JV^UZNV TQ S^WWZP
L^Q^ Vb_^ bO ×9@GGp ~WW VZ`QTP`TSZ` TaP^QMbOZTUP bU_ V^bPNQ^V^UOP L^Q^ Vb_^
ZU bVVTUZb`bW |TU\T Q^_* b]O^Q b P[TQO bRN^TNP tow SQ^OQ^bOV^UO OT ZVSQTM^
OZPPN^ _ZPPT`ZbOZTU bU_ VbOQZK _ZPPTWNOZTUp r^bPNQ^V^UOP T] abPZ_ZTPSTQ^P `ZO^
;D9A2@n .?E2@ I9E ;D9A2@m.?E2@ 4I2?8 t Up ?9 2@D B8;;8.?9A B84:I2 l t:?9?:1:
V^bPNQ^_)% V^bU VZUNP PObU_p_^Mp mean value V^bU SWNP PObU_p_^Mp 5)VbKZVNV
V^bPNQ^_%, O[^ PSTQ^ V^bPNQ^V^UOP bQ^ abP^_ TU 9G PSTQ^P<`TWW^`OZTUp
Phylogenetic data. yTQ S[JWT\^U^OZ` SNQSTP^P L^ SQT_N`^_ P^RN^U`^ _bOb ]TQ O[^
B814 AD9D3 t:?2SSOn 91F[SOn TWgs I9E TEF)D% NP^_ ZU O[^ Cantharellus S[JWT\^UJ
aJ }NJ`X et alp 59GD@%p q^LWJ SQT_N`^_ P^RN^U`^P bQ^ P[TLU ZU jbaW^ Dp yNU\bW
AD98:?F eYh ?38;I2?89n I:7;?’FI2?89n 3D51D9F?9A I9E 31H3D51D92 7@,;8AD9D2?F
bUbWJP^P L^Q^ S^Q]TQV^_ bP ZU }NJ`X et alp 59GD&b%p
jbaW^ Dp hT N`[^Q ObaW^ P[TLZU\ b__ZOZTUbW TQ Q^SWb`^_ Cantharellus P^RN^U`^ _bOb `TVSbQ^_ OT
O[^ MTN`[^Q ObaW^ ZU }NJ`X et al. 9GD&b
Taxon Vo ucher Provenance Herbarium Genbank accession numbers
mitSSU nucLSU RPB2 TEF1
C. coccolobae
j'i$mTf jjqs$ a1IED;817D Wf 'j(s(o( \LC$!jj( \LC$!'CC \LC$i))s \LC$!'s'
C. coccolobae
j'i(mTf j(qs( a1IED;817D Wf '!joC$o \LC$!jj$ \LC$!'C) \LC$i))o \LC$!'sj
C. garnieri
DG9G<}} G#pG9@ q^L |bW^_TUZb Wf ''C(Ci' \LC$!jjj \LC$!'C$ \LC$i)C) \LC$!'j!
C. garnieri
DG9D<}} G#pG44 q^L |bW^_TUZb Wf ''C(Cij \LC$!jjs \LC$!'Ci \LC$i))' \LC$!'jC
C. garnieri
DG4G<}} G#p9C4 q^L |bW^_TUZb Wf ''C(Ci! \LC$!jjo \LC$!'C! \LC$i))j \LC$!'j)
C. guyanensis
j$'jmZT ao'si a1,I9D Wf '!jooCo \LC$!js' \LC$!')( \LC$i))C \LC$!'i'
C. guyanensis
j$j!mZT aojCo a1,I9D Wf '!jo$jo \LC$!jsj \LC$!')$ \LC$i))) \LC$!'ij
jLT OQTSZ`bW V^Va^QP T] Cantharellus PNa\p Cinnabarinus 4#4
lzkisjk
n[JWT\^U^OZ` Q^PNWOP
W@,;8AD9D2?F I9I;,3D3 tb?A jp 31AAD32 2@I2 C. coccolobae ZP `WTP^WJ Q^WbO^_
OT C. texensis bU_ C. cinnabarinus. j[^P^ O[Q^^ PS^`Z^P bQ^ \QTNS^_ ZU b VTUTS[JW^OZ`
F;IED .?2@ :I-?:1: 3177842 tZ[%H3 & j''vp I9E C. coccolobae ZP SWb`^_ bP PZPO^Q
F;IED tZ[%H3 & !svp 8B C. texensis. j[^ STPZOZTU T] O[^ PNa`Wb_^ ]TQV^_ aJ O[^P^
O[Q^^ PS^`Z^P LZO[ Q^PS^`O OT TO[^Q Q^__ZP[ PS^`Z^P T] PNa\p Cinnabarinus 5O[^
zNQTS^bU C. friesii* O[^ ~V^QZ`bU C. corallinus bU_ O[^ q^L |bW^_TUZbU C. garnieri%
ZP UTO Q^PTWM^_p vU O[^ SQ^P^UO bUbWJPZP* O[^ _^WZVZOZbOZTU T] PNa\p Cinnabarinus bP
SQTSTP^_ aJ }NJ`X et alq ts'j(p ?3 @?A@;, 3177842DE tZ[%H3 & )$vpq
jbKTUTVJ
Cantharellus coccolobae }NJ`X* rTQ^bN • |TNQO^`NZPP^ sp. nov. F%'V IK(4 UK2(
Mycobank= r}CDC4+'
Diagnosis= {Z]]^QP ]QTV O[^ TO[^Q XUTLU PS^`Z^P ZU PNa\p Cinnabarinus aJ
O[^ SQ^P^U`^ T] ZQQ^\NWbQWJ NU_NWbOZU\* SbQOWJ TQ SQ^_TVZUbUOWJ O[Z`X)LbWW^_ [JS[bW
D-24D:?2?D3 ?9 2@D 7?;D?7D;;?3n 8B2D9 ;89A HI3?E?I I9E 2@D I77I4D92;, 37DF?’F I338F?I2?89
LZO[ Coccoloba PS^`Z^Pp S784D3 D;;?738?En t!q)pCqo%8.78)#p45#pC% ×5@pC%'p4)5.59)
$q)tiq'p ‡:n U & tjqopjq(%1.58)Dp+5Dp#%p
Etymology= Q^]^QP OT O[^ [TPO bPPT`ZbOZTU T] O[ZP `[bUO^Q^WW^
Holotypel aOhec[XOWcq SI?92 b4I9F8?3n [I gI?D X;?/Dn 19ED4 Coccoloba
swartzii ?9 48F=, 3;87D H84ED4?9A •88E7;I?9n 'i h1Aq s'jjn Tq f8142DF1?33D Tfm
a1IE jjq's$ t@8;82,713 [_Wn ?382,713 Wf'j(s(o(p
}bPZ_ZTVbOb \Q^\bQZTNP* PTV^OZV^P LZO[ VbUJ ZU_ZMZ_NbWP* PVbWW aNO
4I2@D4 48H132 I9E •D3@,q nZW^NP s'%o$ :: E?I:qn F89/D- H12 2@D9 •I22D9DE 28 3;?A@2;,
ED74D33DE ?9 2@D FD92D4u 314BIFD 3:882@ 28 ’9D;, 28:D9283D%’H4?;;83D 28.I4E 2@D
VbQ\ZU* _NWW* bWVTPO LZO[ \Q^bPJ bPS^`O L[^U L^O* PbWVTU OT Q^_ TQ Q^__ZP[ SZUX*
PWZ\[OWJ [J\QTS[bUTNP bU_ _ZP`TWTQZU\ QbSZ_WJ OT SbW^ SZUX TQ SZUXZP[ TQbU\^ L[^U
_QJZU\ TNO, VbQ\ZU POQTU\WJ ZU`NQM^_ L[^U JTNU\* Q^VbZUZU\ T]O^U TQZ^UO^_
E8.9.I4E ?9 IADn 38:D2?:D3 :84D 84 ;D33 F89FD924?FI;;, +89DEn ,D;;8.?9A 1789
VbUZSNWbOZTUp EJ!+\[Y&[W+ _^`NQQ^UO* `TVSTP^_ T] O[Z`X M^ZUP* LZO[TNO L^WW)
_^M^WTS^_ \ZWW ]TW_P* ]TQX^_ bU_ UTO OQbUPM^QPbWWJ ZUO^QM^ZU^_ ZU a^OL^^U* PTV^OZV^P
WT`bWWJ LZO[ [bQ_WJ MZPZaW^ M^ZUP TQ U^bQWJ PVTTO[* SbQOZ`NWbQWJ `WTP^Q OT TQ TU O[^
POZS^ bS^K bU_ U^bQ O[^ `bS VbQ\ZU* JTNU\ PTV^OZV^P b M^QJ SbW^ SZUX* bO VbONQZOJ
b a^bNOZ]NW PbWVTU TQbU\^p kOZS^ 9G)4' ×$%C ::n 31HF,;?9E4?FI; 28 :84D ?9•I2DE
OTLbQ_ O[^ abP^* PVTTO[* SbW^ SZUX `WTP^ OT O[^ [JV^UTS[TQ^* VTQ^ TQbU\^ OT
J^WWTLZP[ OTLbQ_ O[^ abP^* _ZPOZU`OWJ J^WWTLZU\ NSTU [bU_WZU\ TQ L[^U `NO*
SbQOZ`NWbQWJ ZU O[^ WTL^Q [bW]* `TVSb`Op yW^P[ ’4:n .@?2Dn 4DEE?3@ 7?9= F;83D 28 2@D
`bS PNQ]b`^* J^WWTLZU\ ZU O[^ WTL^Q POZS^ [bW]p o_TQ OJSZ`bW* ]QNZOJp jbPO^ ’432 :?;En
O[^U PWTLWJ b`RNZQZU\ b _ZPOZU`O b`QZ_ZOJ TU O[^ OZS T] O[^ OTU\N^p kSTQ^ SQZUO UTO
8H2I?9DE B84 2@D @8;82,7Dn H12 8BB%.@?2D ?9 E4?DE BI?92 3784D ED783?2 B84 Tfm
rbQOD9pGG&p
kSTQ^P ^WWZSPTZ_* 5+p#%Cp4)8.78)#p45#pC% ×5@pC%'p4)5.59%$q)tiq'p ‡:n U &
5Dp4%Dp@)1.58)Dp+5Dp#%* PVTTO[p }bPZ_Zb M^QJ WTU\ bU_ PW^U_^Q* CG)D9G ×)%jj ‡:n
SQ^_TVZUbUOWJ '5)&% PSTQ^_* LZO[ b P[TQO bSZ`NWNPp kNa[JV^UZNV _ZPOZU`OWJ
4#@ }p }NJ`X et al.
b?Aq jq WI42 8B 2@D :832 ;?=D;, 24DD t%;9 & so(Coqj!ip ?9BD44DE H, 7@,;8AD9D2?F I9I;,3D3 8B 2@D ( ;8F13%
j'j 2I-I I;?A9:D92q g4I9F@D3 ?9 H8;E 4DFD?/DE 3?A9?’FI92 :I-?:1: ;?=D;?@88E tZ[p H882324I7 tH3p
/I;1D3 tZ[%H3 ‹ !'vpn .@?F@ I4D 4D7842DE I;89A H4I9F@D3q
jLT OQTSZ`bW V^Va^QP T] Cantharellus PNa\p Cinnabarinus 4#'
yZ\P 9)@p Cantharellus coccolobae 5[TWTOJSNP%p 9p S784D3q 4p }bPZ_Zb bU_ abPZ_ZTWbp @p wJS[bW ^KOQ^VZOZ^P
8B 2@D 7?;D?7D;;?3q SFI;D & j' ‡:n H12 89;, $ ‡: B84 3784D3q e4I.?9A3 gq g1,F=q
4#& }p }NJ`X et al.
’;I:D92813n F8:783DE 8B /D4, 3;D9ED4 I9E ;89An F,;?9E4?FI; FD;;3 3?:?;I4 84 9I448.D4
ZU _ZbVp `TVSbQ^_ OT O[^ abP^ T] O[^ abPZ_Zbp |JPOZ_Zb UTU^p nZW^ZS^WWZP `TVSTP^_
8B 4I2@D4 3@842%FD;;DEn 2@?9% 28 2@?F=%.I;;DE @,7@I; D-24D:?2?D3n (%j' t%s'p ‡: E?I:qn
[^Q^ bU_ O[^Q^ PNabSZ`bWWJ QbVZ]JZU\, O^QVZUbW `^WWP MbQZTNPWJ P[bS^_* VTQ^ TQ W^PP
31HF,;?9E4?FI; 28 F;I/I2Dn H12 :832;, ?44DA1;I4;, 19E1;I2?9A 84 3?91813n o'%i't)'p ‡:
WTU\p |WbVS `TUU^`OZTUP baNU_bUO ZU bWW OZPPN^P bU_ M^QJ TaMZTNPp
Other examined material=
guadeloupeq ZI4?D%aI;I92Dn ?9 3I9E, 38?; 89 48F=, 48IE3?ED ?9 F8I32I;
]TQ^PO LZO[ Coccoloba uviferanjj h1Aq s'jjn Wq%hq Z84DI1 a1IEjj%j( t[_Wpu SI?92
b4I9F8?3n [I gI?D X;?/Dn ?9 48F=, 3;87D H84ED4?9A •88E7;I?9 19ED4 Coccoloba
swartziin 'i h1Aq s'jjn Tq f8142DF1?33D Tfma1IE jjq's( t[_Wp
Martiniqueq [D NI1F;?9q YDI4 HDIF@ h93D a4I9E ZIFIH81n ?9 3I9E, 38?;
NU_^Q C. uviferan C h1Aq s'jsnTq f8142DF1?33D Tfm ZI42 js t[_Wpu 9DI4 HDIF@ [D
ZI4?9n h93D b814 • f@I1- tfI7 ZIF4•pn ?9 3I9E, 38?; 19ED4 Coccoloba uvifera*
j$ h1Aq s'jsn hq bI/D; ?9 Wq%hq Z84DI1 ZI42js%!( t[_Wpq
Not yet sequenced, but putative representative material:
MexicopdN`bObUq `8;F@?2n T}I [IAI4283 g?837@D4D TD3D4/Dn sj¤o!–jjqo‰Y
% CC¤'i–jiqs‰X Mq o%$ : I;2qn ?9 SI9E e19D S@41H;I9En ”ZI2844I; ED E19I3 F832D4I3‰n
PbU_J PTZW NU_^Q Coccoloba uviferan $ SD72q s'jsn hq \89A js%!$( tP[LZpu
c; f1,8n P?+?:?9n T?I [IAI4283 g?837@D4D TD3D4/Dn sj¤oj–jiqi‰Ym%C!¤(s–j)qo‰ Mn
o%$ : I;2qn ?9 SI9E e19D S@41H;I9En ”ZI2844I; ED E19I3 F832D4I3‰n 3I9E, 38?; 19ED4
Coccoloba uviferan aq aI;?9E8 j(%'$%j( tP[LZp
united states of aMericap yWTQZ_bp qTQO[ rZbVZ* ZU b SbQX YNPO T]] O[^
VbZU LbWXZU\ SbO[* ZU O[Z`X `WNPO^QP NU_^Q Coccoloba diversifolia tW?AD89 7;1:
24DDpn s'j(n Zq S:?;D, ;DAq tWf 'j(s(o$pu g89?2I gDIF@n 9842@ 8B YI7;D3n B84:?9A
O[Z`X `WNPO^QP ZU O[^ PbU_J PTZW U^bQ O[^ a^b`[* ZU bPPT`ZbOZTU LZO[ Coccoloba uvifera*
ji h1Aq s'jin Zq S:?;D, ;DAq tWf 'j(s(oip
Commentaryl P@?3 37DF?D3 @I3 2,7?FI;;, HDD9 ?ED92?’DE ?9 2@D 7I32 I3
C. cinnabarinus‰ H12 I77DI43 28 HD I 324?F2 I338F?I2D 8B Coccoloba PS^`Z^Pp vO LbP
’432 :D92?89DE B48: 2@D [D33D4 h92?;;D3 H, WDA;D4 tj)Con I3 ”C. cinnabarinus‰pq P@D
ED3F4?72?89 H, WDA;D4 F89’4:3 2@D 3;?A@2 IF4?E?2, 8B 2@D •D3@ I9E 2@D ;I4AD4 3?+D 8B
O[^ PSTQ^P L[^U `TVSbQ^_ OT C. cinnabarinus 8PSTQ^P T] O[^ U^TOJS^ ]TQ O[^ WbOO^Q
L^Q^ \ZM^U ZU }NJ`X et alp 59GDD% bP 5&p'% &p+)7.14)+p&5CpD% ×54p+%4pC)4.25)@p+5'p9%
::n U $ tjq$pjq$!%1.69%jqC'tjq)pRq X2@D4 BDI214D3 ?9 2@D ED3F4?72?89 H, WDA;D4 I4D
ED/?I2?9A B48: 814 I9I;,3?3 I9E 3@81;E HD /D4?’DEl DqAq 3@842 HI3?E?I I9E 2@?9%.I;;DE
[JS[bW ^KOQ^VZOZ^P ZU SZW^ZS^WWZPp oaMZTNPWJ* ZU O[^ `TUO^KO T] b aTTX TU bWW \ZWW^_
B19A?n I j ‡: 2@?F= FD;; .I;; FI9 HD F893?ED4DE "2@?9*n H12 ?9 2@D 324?F2 F892D-2 8B
Cantharellus* O[ZP `TQQ^PSTU_P OT L[bO ZP `TVVTUWJ _^PZ\UbO^_ bP a^ZU\ O[Z`X)
LbWW^_p q^M^QO[^W^PP* O[^ r^KZ`bU `TWW^`OZTUP bWPT [bM^ SQ^_TVZUbUOWJ O[ZU)LbWW^_
tk'q$ ‡:p 2D4:?9I2?893 ?9 2@D 7?;D?7D;;?3 .?2@ 89;, BD. FD;;3 HD?9A E?32?9F2;, 2@?F=%
.I;;DE dFD;; .I;;3 'qC%jqst%jqip ‡: 2@?F=Rq
~P ]TQ O[^ W^U\O[ T] O[^ abPZ_Zb* L^ [bM^ bWPT TaP^QM^_ UTOZ`^baWJ P[TQO^Q
abPZ_Zb ZU O[^ PS^`ZV^UP ]QTV rbQOZUZRN^p
Cantharellus cinnabarinus [bP b M^QJ WTTP^ SZW^ZS^WWZP `TVSTP^_ T] O[ZU)
LbWW^_ ^W^V^UOP LZO[ VbUJ ]Q^^ `WbMbO^ O^QVZUbW `^WWP PTV^ T] L[Z`[ bQ^ VTQ^ TQ
W^PP O[Z`X)LbWW^_* L[ZW^ O[^ Q^`^UOWJ _^P`QZa^_ C. texensis bU_ C. corallinus 5}NJ`X
et alp 9GD&`% bQ^ ^bPZWJ _ZPOZU\NZP[^_ a^`bNP^ T] O[^ZQ _^UP^ `NOZP `TVSTP^_ T] O[ZU)
LbWW^_* Q^\NWbQWJ `JWZU_QZ`bW [JS[bW ^KOQ^VZOZ^P LZO[ VTQ^ _ZPObUO P^SOb bU_ ]^L ]Q^^
^U_ZU\Pp }TO[ WbOO^Q PS^`Z^P bWLbJP STPP^PP L^WW)_^M^WTS^_ \ZWW)]TW_P bU_ bQ^
jLT OQTSZ`bW V^Va^QP T] Cantharellus PNa\p Cinnabarinus 4#+
OJSZ`bWWJ W^PP QTaNPO bU_ [bM^ b WTU\^Q* VTQ^ PW^U_^Q POZS^ `TVSbQ^_ OT C. coccolobaep
KD2n 37DF?:D93 ?9 Tfma1IE jjq's( tB48: a1IED;817Dp E?BBD4 B48: 2@D 82@D4
`TWW^`OZTUP ZU bU ^RNbWWJ W^PP QTaNPO bSS^bQbU`^ bU_ O[^J bWPT Wb`X O[^ _ZPOZU`OWJ
J^WWTLZU\ `TUO^KO* aNO PSTQ^ V^bPNQ^V^UOP \bM^ M^QJ PZVZWbQ Q^PNWOP= 5&p+%+p#)8.51)
#pD5#pC% ×5@pC%'pD)5.48%$q)tiqsp ‡:n U & tjqopjq(%1.56)Dp+5Dp#%p yQNZOZU\ aT_Z^P T]
2@?3 F8;;DF2?89 I;38 D-@?H?2 I +89I2D 3241F214D 8B 2@D F892D-2 /D4, F8:7I4IH;D 28 2@D
`TUO^KO POQN`ONQ^ T] Multifurca tT1331;IFDIDp % 3DD g1,F= et alp 9GGC%p ~PZVZWbQ
+89I2?89 FI9 3784IE?FI;;, I;38 HD 8H3D4/DE ?9 38:D 2487?FI; hB4?FI9 Cantharellus
5}NJ`X* S^QPp TaPp% aNO bSS^bQP OT [bM^ UT SbQOZ`NWbQ ObKTUTVZ` TQ _Zb\UTPOZ`
ZVSTQObU`^ ]TQ PS^`Z^P Q^`T\UZOZTU ZU O[ZP \^UNPp
|TVSbQ^_ OT O[^ TO[^Q PVbWW* Q^__ZP[ PS^`Z^P T] PNa\p Cinnabarinus*
C. coccolobae 32I9E3 812 HDFI13D 8B 2@D B4D51D92;, ;89A HI3?E?In 2@D ’;I:D92813
PNa[JV^UZNV bU_ ZO VbJ SQT_N`^ PTV^OZV^P PS^`ZV^UP LZO[ b VN`[ PVTTO[^Q
[JV^UTS[TQ^ 5yZ\p #%* ^M^U OT bU ^KO^UO O[bO PTV^ `bU bWVTPO a^ `TUPZ_^Q^_ bP
"3:882@ F@I92D4D;;D3* tg1,F= s'j(pq P@D3D F@I4IF2D43 I4D 8B2D9 8H3D4/DE ?9
`[bUO^Q^WW^P O[bO T``NSJ VTQ^ abPbW STPZOZTUP ZU O[^ VbZU ZU]Qb\^U^QZ` VTUTS[JW^OZ`
`Wb_^P 5}NJ`X et alq s'j(p I3 D51I;;, 31AAD32DE H, I 7I42?I; _PS%[SO I9I;,3?3
5}NJ`X et alp 9GD&a%p
Cantharellus garnieri {N`TNPPT • zJPPbQOp* Cryptogamie, mycolp9'59%= D@Gp 9GG@p
F%'V ;K?4 2;
~_^ObZW^_ _^P`QZSOZTU LbP SQTMZ_^_ ZU O[^ TQZ\ZUbW SNaWZ`bOZTUp oNQ PS^`ZV^UP b\Q^^
ZU ^M^QJ Q^PS^`O LZO[ O[^ TQZ\ZUbW _^P`QZSOZTU* ^K`^SO ]TQ O[^ POQTU\WJ M^ZU^_)
I9I328:83DE @,:D987@84D tb?Aq jjpq S784D3 :DI314D:D923 B84 31F@ 37DF?:D93 I4D
Z_^UOZ`bW OT O[TP^ ZU O[^ TQZ\ZUbW _^P`QZSOZTU= 5+p4%+p&)8.28)Cp#5#pC% ×5'p9%'p9)5.63)
iq'tiq$p ‡:n U & tjqopjq(%1.47)Dp'5Dp&% ]TQ }}G#p9C4 M^QPNP 5+p'% C)8.34)#p9' 5DG%
×5'% 'p9')5.68%i •:q U & jqoo%1.52)DpC4 ]TQ O[^ [TWTOJS^ `TWW^`OZTU 5{N`TNPPT et
alp 9GG@%
Examined material: new caledoniaq Y842@D49 W48/qn \89?I:H8n FI !s' :
I;2qn 89 1;24I:I’F 38?; 19ED4 Nothofagus balansae* D+ rbQ`[ 9GG#* W^\p }NJ`X* }p*
c,33I42?D4 aqn `8B32D22D4n Nq ^ Zq e1F81338n ?9 g1,F= j's'm')q's( tWf ''C(Ci'pn
j'sjm')q'oo tWf ''C(Cijpn j'ssm')q'$o tWf ''C(Cispu _;D ED3 W?93n [D gIA9Dn
NU_^Q Acacian o h74?; s'')n g1,F=n gqn c,33I42?D4 aqn `8B32D22D4n Nq ^ Zq e1F81338
;DA192n ?9 g1,F= j'o'm')qsCo tWf ''C(Ci!pu \89?I:H8n B84D32 9DI4 P4I+, D924,
LZO[ Nothofagus codonandran ) h74?; s'')n ;DA192 g1,F=n gqn c,33I42?D4 aqn
`8B32D22D4n Nq ^ Zq e1F81338n ?9 g1,F= j'osm')qo$$ tWf ''C(CiCpq
Commentary: P@?3 37DF?D3 .I3 ED3F4?HDE I3 @I/?9A "E?32?9F2;, 2@?F=D9DE
FD;;%.I;;3* ?9 2@D 7?;D?7D;;?3n H12 2@D ED3F4?72?89 37DF?’DE 9D/D42@D;D33 I 2@?F=9D33 8B
:D4D;, 'q$ ‡:n .@?F@ .?;; 314D;, HD 7D4FD?/DE I3 IH38;12D;, 2@?9%.I;;DE H, :832
7D87;Dq h;38 2@D ’432 I12@84 2D9E3 28 F893?ED4 31F@ FD;;3 32?;; I3 "2@?9% 28 3;?A@2;,
O[Z`X)LbWW^_> L[^U `TVSbQ^_ OT TO[^Q `[bUO^Q^WW^P* aNO [JS[bW O^QVZUbOZTUP bQ^
U^M^QO[^W^PP _ZPOZU`OWJ Q^]QZU\^UO* VTQ^ PT O[bU ZU OJSZ`bWWJ O[ZU)LbWW^_ PS^`Z^P* PN`[
bP C. texensis B84 D-q gDFI13D 8B 2@D :D92?89 8B 31F@ ”2@?F=%.I;;DE‰ @,7@I;
^KOQ^VZOZ^P* O[ZP PS^`Z^P LbP TQZ\ZUbWWJ SWb`^_ ZU PNa\p Cantharellus 5{N`TNPPT et
alp 9GG@%p j[^ [JV^UTS[TQ^ T] O[ZP PS^`Z^P LbP TQZ\ZUbWWJ _^P`QZa^_ bP UTO TQ TUWJ
L^bXWJ ZUO^QM^ZU^_p oNQ `TWW^`OZTU G#p9C4 5yZ\p D@% `W^bQWJ P[TLP O[bO [JV^UTS[TQ^
_^M^WTSV^UO ZP RNZO^ MbQZbaW^ 5bP ZU C. coccolobae% bU_ VbJ SQT_N`^ \ZWW ]TW_P
L[Z`[ bQ^ T``bPZTUbWWJ POQTU\WJ ZUO^QM^ZU^_p
4#C }p }NJ`X et al.
yZ\P ')+p Cantharellus garnieri 5}NJ`X G#p9C4% 'p S784D3q &p }bPZ_Zb bU_ abPZ_ZTWbp +p wJS[bW ^KOQ^VZOZ^P
8B 2@D 7?;D?7D;;?3q SFI;D & j' ‡:n H12 89;, $ ‡: B84 3784D3q e4I.?9A3 gq g1,F=q
jLT OQTSZ`bW V^Va^QP T] Cantharellus PNa\p Cinnabarinus 4##
yZ\p Cp Cantharellus coccolobae t@8;82,7Dpq Y82D 2@D ,D;;8.?9A 8B 2@D ;8.D4 32?7Dq tW@828 Tq f8142DF1?33Dpq
yZ\p #p Cantharellus coccolobae tWq%hq Z84DI1 a1IEjj%j(pq Y82D 2@D 7884 @,:D9?1: ED/D;87:D92 I9E
IH3D9FD 8B E?32?9F2;, ,D;;8.?9A 2?331D3q tW@828 Wq%hq Z84DI1pq
@GG }p }NJ`X et al.
yZ\P DG)D4p Cantharellus coccolobaep yZ^W_ [baZObO bU_ PS^`ZV^UP ]QTV yWTQZ_b 5TU O[^ W^]O* bPPT`ZbO^_
LZO[ C. diversifolia, 7@8283 Zq S:?;D,p I9E ZD-?F8 t89 2@D 4?A@2n I338F?I2DE .?2@ C. uviferae* S[TOTP
~p tTU\%p qTO^ O[^ J^WWTLZU\ WTL^Q POZS^ bU_ POQTU\WJ _^`NQQ^UO* L^WW)_^M^WTS^_ [JV^UTS[TQ^ LZO[
baNU_bUO ZUO^QPOZOZbW bUbPOTVTPZU\ M^ZUPp
jLT OQTSZ`bW V^Va^QP T] Cantharellus PNa\p Cinnabarinus @GD
yZ\p D@p Cantharellus coccolobaep yZ^_ bPS^`O T] `WNPO^Q^_ ]QNZOZU\ aT_Z^Pp qTO O[^ \Q^bPJ* PVTTO[ `bS
314BIFD ?9 2@D B4D3@n .D;;%@,E4I2DE 37DF?:D93 tW@828 Zq S:?;D,pq
yZ\p D'p Cantharellus garnieriq tg1,F= ^ c,33I42?D4 ')qsCon 7@828 aq c,33I42?D4pq
@G9 }p }NJ`X et al.
Cantharellus garnieri t84?A?9I;;, 71H;?3@DE I3 "garnierii’% Wb`XP Q^__ZP[*
SZUX TQ aQZ\[O TQbU\^ OZU\^P bU_ ZP b VTQ^ J^WWTLZP[ OT J^WWTLZP[ TQbU\^ PS^`Z^P ZU
b \QTNS T] SQ^_TVZUbUOWJ Q^_)SZUX)TQbU\^ PS^`Z^P 5yZ\p D%p vO `bU ^bPZWJ a^ `TU]NP^_
LZO[ O[^ ^RNbWWJ J^WWTL bU_ `WTP^WJ Q^WbO^_ C. wellingtonensis r`qbaa* TQZ\ZUbWWJ
ED3F4?HDE B48: YD. JDI;I9E tZFYIHH j)!jpn H12 I;38 74D3D92 ?9 YD. fI;DE89?I
5}NJ`X* NUSNaWp%p
j[^ TQZ\ZUbW SNaWZ`bOZTU _Z_ UTO V^UOZTU [TPO OQ^^P ]TQ C. garnierip oNQ _bOb
31AAD32 2@I2 ?3 982 @832 37DF?’F I3 ?2 I77DI43 28 I338F?I2D I2 ;DI32 .?2@ H82@ Acacia
5ybabW^P% bU_ Nothofagus 5yb\bW^P% ZU q^L |bW^_TUZbp
~`XUTLW^_\^V^UOPp P@D ’432 I12@84 IF=98.;DEAD3 B19E?9A B48: 2@D b4D9F@
YI2?89I; hAD9F, B84 TD3DI4F@ B84 ’D;E .84= ?9 YD. fI;DE89?I 2@481A@ 748>DF2 g_XYcXfh[
hYT%'!% ge_N%''iq P@I9=3 I4D I;38 E1D 28 eD9?3 W8?A989DF ED \89?I:H8 Y?F=D; ShS B84
BIF?;?2?D3 28 F8;;DF2 ?9 2@D \89?I:H8 :?9?9A I4DIn 28 Zq e1F81338 tf_Then Z8927D;;?D4p B84
;8A?32?FI; 3177842 I9E ’D;E I33?32I9FDn I9E 28 2@D e?4DF2?89 8B 2@D 3812@D49 748/?9FD B84 2@D
F8;;DF2?9A I9E D-7842 7D4:?2 8B B19AI; 37DF?:D93q aq c,33I42?D4 ?3 2@I9=DE B84 748/?E?9A 2@D
S[TOT\QbS[ T] C. garnieriq hq \89A 2@I9=3 2@D 748>DF2 ”TDED3 PD:I2?FI3 7I4I D; c321E?8 ED
;I3 _92D4IFF?89D3 D9 Z•-?F8‰n WTXZcWmj'oq$m')mjs)( s'jsn B84 ’9I9F?I; 3177842 28 F8;;DF2
2@D ZD-?FI9 37DF?:D93q ZI4, S:?;D, tOShn b[p I9E h4;DD9 gD33D22D tOShn ahp I4D 2@I9=DE
B84 748/?E?9A 37DF?:D93 I9E 7?F214D3q f8;;DF2?893 B48: b4D9F@ a1?I9I .D4D AI2@D4DE 2@I9=3
28 2@D Y814IA1D3 TD3DI4F@ S2I2?89 A4I92 tZKfXP_Yp 28 Zq T8,q f8;;DF2?893 B48: b4D9F@
MD32 _9E?D3 ta1IED;817D I9E ZI42?9?51Dp .D4D :IED E14?9A 2@D F8143D 8B ’D;E 24?73 84AI9?+DE
.?2@?9 2@D 748A4I: ”[D3 F@I:7?A9893 ED3 WD2?2D3 h92?;;D3l e?/D43?2•n •F8;8A?D D2 7482DF2?89‰
F89E1F2DE H, 89D 8B 13 tTfp I9E 2@I9=3 28 A4I923 B48: 2@D b4D9F@ b84D324, XB’FD tXYbp 28
2@D b4D9F@ Z,F8;8A?FI; S8F?D2, tSZbpq
lzyzlzq|zk
hT_KhMhYSh `qhqn `Kec \qeqn ]hKhS_T_ Sqfqn gOKf\ gqn f`cP`hYh \qMqPqn eh_ eqUqn
eh_ Kqfqn ehThYhahZh eqhqn ]hKhMhTecYh TqSqn [Of\_Ya Tqn a`Xghe%
Yc]`he Zqn Y_S\hYcY Pqn P`hZgOah[h \qZqn NX_aP \qn J`hX Tq[qn [_ aq]qn
eX_[XZ Zqn gXXYZcc Sqn KhYa Jq[qn fh_ Uqn fO_ Kq Kq n gh`\h[_ hq`qn f`cY ]qn
fO_ gq\qn f`cY ]q]qn ehKhThP`Yc Zqfqn e_SShYhKh\c hq]qn c\hYhKh\h hq`qn
`hS`_ZXPX hqn `XYaShYhY Sqn ]XYcS cqgqaqn [hTSSXY cqn [_ Mq ]qn [_ UqTqn
[_O ]q\qn [OX Jq[qn Zh`hThf`f`_\OZgOTh SqSqYqn ZhWXX\ hqn
Zf\cYJ_c cq`qfqn YXTW`hYW`XOY fqn \XYPh Sqn WhYa \q[qn WcTcTh Tq`qn
W`XX\hZSh\ Tqn W`O\`hZSh\eh fqn W_YTOhY Oqn ThYeT_hY]X`hYK cqn
S_YaPT_WXW fqn PhYh\h \qn P_hY fqZqn P_gWTXZZh Sqn hgec[%Mh`hg Zqhqn
MhYhS_Ya`c eqYqn M_]hKhMhTecYc Yqn J`hYa ]qbqn J`hYa `qn hgec[%
hJ_J bqhqn Mce_Y Zqn McSPgcTa Zqn hZZ_ThP_ ]qbqn gO[ah\XN PqSqn [_Zh eqLqn
fh[[ha`hY PqZqn fh[[hf Wq n f`hYa fq`qn fXfh [qbqn eh[%bXTYX Zqn
eX[[`XbcT Nqn b[_cacTXNh \qn aTc_YcT \qn aT_bb_P` aqMqn `X `qZqn
`XbSPcPPcT Nqn ]ccMXY Tqn \hYa ]qfqn McY Pqfqn \_T\ Wq Zqn \KPšNOXT_ _qn
[hMTcK ]qeqn L_Ya ]qn [_ `qn [_O JqKqn [_O LqJqn [__ZhPh_YcY \qn [OZgSf` `qPqn
ZhPSOZOTh Zqn ZXYfheh gqn YOhY\hcM Sqn WhTYZcY Sqn ec hJcNceX
ShYP_haX hq[qfqZqn SXZZh_ Sqn SXYa Kq n ec SXOJh fqhqbqn ec SXOJh%
ZXPPh fqZqn SO `qKqn SOcPTXYa Sqn MhYa Kq n Mc_ Sqbqn McY Pqfqn KOhY `qSqn
J`XO [qMqn TŽg[XN“ Zqn bXOTY_cT ]qn fhZWXTcS_ cqn [OhYaSh%hTe ]q]qn
PhShYhP`h_ \qn \`XYShY_P hqn P`hYh\_PW_WhPPh Yh eqn SXZT_P`_WX[ Sqn
e_cecT_f` Wqn Z_[[hYcS hqZqn fXZZXY TqSqn SPhe[cT Zqn KhY ]qKqn [_ Lq`qn
[cc `qMqn YaOKcY PqPqPqn [cc `qgqn ghPP_SP_Y cqn ZhTS_fX Xqn N_JJ_Y_ hqn
N_[h ]qn cTfX[c cqn cgcT`hTeP Oqn S_ZXY_Y_ aqn McY `qhq ^ f`cY Lq`qn s'j$
• b19AI; e?/D43?2, Y82D3 jjj%s$sl 2I-898:?F I9E 7@,;8AD9D2?F F8924?H12?893 28 B19AI; 2I-Iq
Fungal Diversity +'= D)D#+p
jLT OQTSZ`bW V^Va^QP T] Cantharellus PNa\p Cinnabarinus @G4
}id|t }p* s'j( • c-7;84?9A 2@D E?/D43?2, 8B ”3:882@ F@I92D4D;;D3‰ tCantharellus* |bUO[bQ^WWbW^P%p
Cryptogamie, Mycologie 4' 5D%* 94)@Gp
gOKf\ gqn fTOhOe fqn fXO[XOL hq ^ `XbSPcPPcT Nqn s'jj • Cantharellus texensis PSp UTMp
B48: PD-I3n I S812@D49 ;88=I;?=D 8B C. cinnabarinus Q^M^bW^_ aJ O^])D P^RN^U`^ _bObp
Mycologia DG4= DG4+)DG@&p
gOKf\ gqn ec fTXW cqn NcTgc\cY hq ^ `XbSPcPPcT Nqn s'jiI • O92I9A;?9A 2@D fD924I;
~]QZ`bU Cantharellus P^`Op Tenues=Cantharellus minutissimus sp.nov. I9E D7?2,7?’FI2?89 8B
Cantharellus alboroseus. Cryptogamie, mycologie 4+54%= 49#)4@4p
gOKf\ gqn `XbSPcPPcT Nq n c gcT`hTeP Oqn NcTgc\cY hq ^ \hObb bqn s''C • MI;=?9A 2@D
O[ZU WZU^ a^OL^^U Russula bU_ Lactarius= O[^ _ZW^VVb T] Russula PNaP^`Op Ochricompactaep
yNU\bW {ZM^QPZOJ 9C= D')@Gp
gOKf\ gqn \hObb bqn c KSShTP_cT aqn fXO[XOL hq ^ `XbSPcPPcT Nq n s'j( • h :1;2?;8F13
S[JWT\^UJ ]TQ LTQW_LZ_^ Cantharellus 5|bUO[bQ^WWbW^P* ~\bQZ`TVJ`^OZ_b^%p Fungal Diversity
&@ 5D%= DGD)D9Dp
gOKf\ gqn `XbSPcPPcT Nq ^ X[hT_hah _qn s'jia• SD22?9A 2@D 4DF84E 324I?A@2 89 Y842@
~V^QZ`bU Cantharellus. Cryptogamie, Mycologie 4+54%= @G')@D+p
gOKf\ gqn X[hT_hah _qn ]OSP_fc ]qn [cM_S eqn TXXeK Mq ^ `XbSPcPPcT Nq n s'jiF • P@D
E?;D::I 8B 37DF?D3 4DF8A9?2?89 ?9 2@D ’D;E .@D9 3D51D9FD EI2I I4D 982 ?9 7@I3D .?2@
S[^UTOJSZ` MbQZbaZWZOJp Cryptogamie, Mycologie 4+54%= 4&+)4C#p
eOfXOSSX Zqn fXYPcSPX fqn fXSScah[ Zq ^ WT_Y Kq n s''( • Cantharellus garnierii PSp UTMp*
19D 981/D;;D F@I92D4D;;D ED3 :I51?3 :?9?D43 9?F=•;?B›4D3 ED Y81/D;;D fI;•E89?Dq Cryptogamie,
mycologie 9'59% = D4')D@'p
ZfYhgg TqbqTqn j)!j • S8:D YD. I9E TD/?3DE PI-I 8B YD. JDI;I9E gI3?E?8:,FD2D3 tb19A?pq New
Zealand Journal of Botany #= 4'')4+Gp
Wca[cT eqYqn j)Co • hAI4?F b;84I 8B 2@D [D33D4 h92?;;D3q Kew Bulletin, Additional series _Ln
77q j%iiCn s! 7;I2D3q `D4 ZI>D32,*3 S2I2?89I4, XB’FDn [89E89q
S`hX Sq%fqn gOKf\ gqn P_hY Lq%bqn [_O Wq%[q ^ acYa Kq %`qn s'j$ • Cantharellus phloginus* b
U^L SZUX)`TWTQ^_ PS^`Z^P ]QTV PTNO[L^PO^QU |[ZUbp Mycoscience '+= D@@)D@#p
SO`hTh `q ^ \OTXa_ Sqn s'j$ • Cantharellus cyphelloides 5|bUO[bQ^WWbW^P%* b U^L bU_ NUNPbNW
37DF?D3 B48: I ]I7I9D3D D/D4A4DD9 H48IE%;DI/DE B84D32q Mycological Progress D@5C%= D)+p
... Cantharellus texensis was described from Texas and may occur in Florida, but this species has not yet been officially documented in the state. Cantharellus coccolobae is found in Florida but is only found in southern Florida in association with species of Coccoloba, including both Coccoloba uvifera (sea grape) and Coccoloba diversifolia (pigeon plum) (Buyck, Moreau, et al. 2016). Given the prior misidentification of these species, more research must be done using DNA sequencing to examine the diversity and distribution of both Cantharellus and Craterellus species in Florida and elsewhere in North America. ...
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This document is intended to introduce the general public to the chanterelle mushrooms of Florida and includes a preliminary key to Florida’s most common chanterelle species. Written by Kaori Hall, Ben Lemmond, and Matthew E. Smith, and published by the UF/IFAS Plant Pathology Department, February 2023.
... Cantharellus coccolobae Buyck, P.-A. Moreau & Courtec also occurs widely with Coccoloba uvifera in Florida, the Yucatan Peninsula, and the Greater and Lesser Antilles (Buyck et al. 2016;Kreisel 1971;Lodge 2002). Clavulina floridana ranges from dirty white to gray to blackish and can be easily overlooked. ...
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Clavulina comprises ca. 90 described species distributed worldwide in both tropical and temperate regions. However, only one species (C. floridana) has been described so far from tropical North America. We used morphological and molecular data from three DNA loci (nuc rDNA internal transcribed spacer region ITS1-5.8S-ITS2 [ITS], a portion of nuc 28S rDNA [28S], and a fragment of DNA-directed RNA polymerase II second largest subunit [RPB2]) from basidiomata and ectomycorrhizas collected in tropical ecosystems from three biogeographic provinces of Mexico and one tropical province in the USA to investigate the phylogenetic and taxonomic diversity of Clavulina in the region. Nine new species-level clades were discovered, two of which are proposed as new species (C. arboreiparva and C. tuxtlasana). Specimens of C. floridana recently collected in Florida were included in our analyses, for which a modern description is provided. In addition, C. floridana is a new record for Mexico. The diversity of Clavulina in tropical North America is comparable to that found in lowland tropical South America. However, some of the species found in tropical deciduous forests produce small, rare, and inconspicuous basidiomata, which easily go unnoticed, and therefore are poorly represented in collections. Many species remain undescribed in tropical regions of North America. First 50 readers can download the full paper from here: https://www.tandfonline.com/eprint/BY5Q56MWMR7FWMRHEEGM/full?target=10.1080/00275514.2022.2148191
... (6) µm], longer basidia up to 120 µm and the thick-walled hyphae of the pileipellis. Additionally, C. coccolobae was reported to be strictly associated with Coccoloba trees, while C. neopersicinus is under Eucalyptus trees [33]. Cantharellus phloginus is redescribed in this study and differs in its darker pileus color, pale yellow to light yellow hymenophore, white context and larger basidiospores [6.8-9.5 (-12) × 5-7 µm]. ...
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... Further suggestion supporting a symbiotic relationship between N. antillanus and C. uvifera is the co-occurrence at the same locality with Cantharellus coccolobae Buyck, P.-A. Moreau and Courtec., which is strictly associated with seagrape in tropical America (Buyck et al. 2016). ...
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Neoboletus antillanus sp. nov. appears to be the only red-pored bolete known from the Dominican Republic to date. It is reported as a novel species to science based on collections gathered in a neotropical lowland mixed broadleaved woodland. A detailed morphological description, color images of fresh basidiomes in habitat and line drawings of the main anatomical features are provided and relationships with phylogenetically and phenotypically similar taxa are discussed. Three genomic regions (nrITS, nrLSU/28S and rpb2) have been sequenced in order to reinforce the recognition of the new species and to elucidate its taxonomic affiliation within Neoboletus.
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Cantharellus, one of the main genera of Hydnaceae (Cantharellales), is both ecologically and economically important. Although many studies have focused on this genus in China, the taxonomy should be further updated. In the present study, Cantharellus subgenera Afrocantharellus and Magni were investigated based on morphology and molecular phylogenetic analyses with new collections from China. Five phylogenetic species were recognized among the studied collections, three of which were described as new: C. bellus, C. cineraceus, and C. laevigatus; one was previously described taxon: C. hygrophoroides; and the remaining species was not defined due to the paucity of the materials. Among the four described species, both C. bellus and C. laevigatus are members of subgen. Magni, whereas C. cineraceus and C. hygrophoroides belong to subgen. Afrocantharellus.
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Two new species of yellow Cantharellus and a new record of Cantharellus tabernensis associated with tropical species of Quercus are presented, based on the taxonomic study of fresh specimens and in a phylogenetic analysis of transcription elongation factor 1-alpha (tef-1α) and the large subunit of the ribosome (nLSU) sequences. One of the new species proposed here, corresponds to a choice edible mushroom, which, in our molecular phylogeny, resulted in it being related to the group of species around C. lateritius and sister with Craterellus confluens type specimen. This latter is here formally transferred to Cantharellus and consequently a new name, Cantharellus furcatus, is proposed to replace the homonym Cantharellus confluens (Schwein.) Schwein. 1834 a later synonym of Byssomerulius corium. Detailed macroscopic and microscopic descriptions accompanied with illustrations and a taxonomic discussion are presented for each species.
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Cantharellus densifolius and C. luteopunctatus are epitypified on the basis of recently collected specimens from the Central African rain forest that correspond in every way to their respective original descriptions. Sequences obtained from these new collections demonstrate that both epitypes represent distinct species that belong in different subclades of Cantharellus subg. Rubrinus. Previously, the name C. densifolius has been consistently misapplied to more or less similar species from the African woodland area, including C. densilamellatus sp. nov. which is described here, In addition, C. tomentosoides sp. nov., a rain forest species that is easily confused with C. densifolius, is described.
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Abstract – The authors assembled for the first time a sequence dataset representative of all 29 presently described North American Cantharellus species, including not only all six newly described North American species presented in this special issue, but very importantly, also newly obtained partial ITS and LSU sequence data from the type specimens of C. camphoratus and C. septentrionalis, two species that supposedly had never been recollected in the United States since their original description. As such, they hope to put the record straight for future research on Cantharellus in North America and to allow for a more precise identification and appreciation of newly collected, sequenced specimens.
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This paper explores the interesting diversity within the group of "smooth chanterelles" and introduces several new taxa from the tropics: C. sublaevis Buyck & Eyssart. and C. cibarioides (Heinem.) Buyck comb. nov. from Africa, C. eccentricus Buyck & V. Hofstetter and C. neocaledonicus Buyck, V. Hofstetter, Eyssart. & Ducousso from New Caledonia and C. incrassatus Buyck & V. Hofstetter from Malaysia.
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After a short historical overview of past systematic studies on Cantharellus, discussing delimitation and species diversity of the genus as well as previous, morphology-based, infrageneric classifications, this paper presents the first molecularly-based infrageneric classification of this genus using a multigene phylogenetic approach (nucLSU, mitSSU, RPB2 and tef-1) on a dataset that covers approximately halve of the described chanterelles worldwide, including many type specimens. Six subgenera are recognized and the recognition of subgenus Afrocantharellus as a separate genus is not accepted. The taxonomic value of individual morphological features is discussed as challenged by this new multigene phylogeny which comprises five new sections, one new subgenus and many emendations for previously recognized infrageneric groups. The paper discusses the observed discrepancy in biodiversity of Cantharellus when comparing between studies that focus either on below- or above-ground presence. A preliminary biogeographic hypothesis suggests an ‘out of Africa’ Gondwanan origin as a result of vicariance and subsequent migrations.
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A new species, Cantharellus phloginus, is reported from subtropical and tropical areas of Yunnan Province, and described in detail. It was distinctive from other species by unique morphological features such as the light pink color of pileus and pinkish tinges on the stipe in contrast to yellow-orange hymenophore, well-developed gill-folds and the ellipsoid basidiospores (7.5–8.5 × 5.0–6.5(–7.0) μm). The new species was further substantiated by phylogenetic analysis of the transcription elongation factor 1-alpha gene sequences that show it to be a sister-species to the North American C. cinnabarinus, the type species of C. subgen. Cinnabarinus.
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We describe a new species, Cantharellus cyphelloides (Cantharellaceae, Cantharellales, Agaricomycetes), from a Japanese evergreen broad-leaved forest based on morphological and molecular data. The new species differs from other Cantharellus species by its cyphelloid basidiomata with the hymenophore produced on the adaxial surface (inner side of the cup), rather than the abaxial surface. Molecular phylogenetic reconstruction, based on partial nLSU rDNA sequence data, and microscopic features place the new species in Cantharellus subgenus Cinnabarinus. An emended description of subgenus Cinnabarinus is provided. © 2015, German Mycological Society and Springer-Verlag Berlin Heidelberg.
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This paper questions the validity of the traditional features used to delimit genera in the order Russulales. Molecular phylogenetic analyses of ribosomal genes (ITS-nucLSU) and part of a protein-coding gene (RPB2) indicate that four phylogenetically distinct clades are identified within Russulaceae. In the light of molecular and morphological evidence, the authors demonstrate that one group of species, presently classified by several modern authors as subsection Ochricompactae within Russula subgenus Compacta, corresponds to a monophyletic entity that includes typical species of both Russula and Lactarius, and that the shared morphology between these Russula species and the very rare American Lactarius furcatus Coker is not a matter of convergence. Several of the species here discussed are remarkable for their outstanding hymenial features and reminiscent of resupinate taxa. Multifurca gen. nov. is described to accommodate L. furcatus and the species of Russula subsect. Ochricompactae, with the exception of R. grossa, which should be transferred to Russula sect. Heterophyllae. Multifurca roxburghiae sp. nov. is described from India for R. grossa sensu Bills & Pegler, a taxon that would traditionally have fitted in Russula.
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Cantharellus garnierii sp. nov. est décrit à partir de sept récoltes provenant des maquis miniers nickélifères de Nouvelle-Calédonie. Il est signalé comme associé à Acacia spirorbis, Casuarina collina et Nothofagus balancae au sein d'un cortège assez classique et diversifié de champignons ectomycorhiziens comprenant, entre autres, les genres Russula, Lactarius, Inocybe, Suillus, Boletus, Cantharellus… Ce taxon est caractérisé par la taille moyenne de ses carpophores, qui sont d'un jaune à jaune orangé uniforme, sa croissance le plus souvent fasciculée, sur des sols nickélifères ultrabasiques, ses spores de taille moyenne, son médiostrate relativement différencié, et enfin ses hyphes bouclées à paroi distinctement épaissie au niveau de l'épicutis. Aucune autre espèce décrite au niveau mondial ne se rapproche de C. garnierii. Abstract – Cantharellus garnierii sp. nov. is described from seven field collections from nickel mine maquis in New Caledonia. It was found in association with Acacia spirorbis, Casuarina collina and Nothofagus balancae among several other, quite common ectomyc-orrhizal fungi including genera such as Russula, Lactarius, Inocybe, Suillus, Boletus and Cantharellus… This taxon is characterised by the medium size of its yellow to yellow-orange coloured carpophores, the mostly fasciculate growth on nickel-rich ultra basic soils, the medium sized spores, the relatively well-differentiated mediostratum and the clamped hyphae with distinctly thickened wall in the epicutis. No other known fungus has this combination of characters.