bugs r all 18 december 2011

24
Bugs R A! Newsletter of the Invertebrate Conservation & Information Network of South Asia The IUCN Species Survival Commission (SSC) is a science-based network of some 7,500 volunteer experts from almost every country of the world, all working together towards achieving the vision of, “A world that values and conserves present levels of biodiversity." Most members are deployed in more than 100 specialist Groups Task Forces. Some groups address conservation issues related to particular groups of plants or animals while others focus on topical issues, such as reintroduction of species into former habitats or wildlife health. Members include: researchers, government officials, wildlife veterinarians, zoo and botanical institute employees, marine biologists, protected area managers, experts on plants, birds, mammals, fish, amphibians, reptiles, and invertebrates. Working in close association with IUCN’s Species Programme, SSC’s major role is to provide information to IUCN on biodiversity conservation, the inherent value of species, their role in ecosystem health and functioning, the provision of ecosystem services, and their support to human livelihoods. SSC members also provide scientific advice to conservation organisations, government agencies and other IUCN members, and support the implementation of multilateral environmental agreements. The technical guidelines produced by the SSC provide guidance to specialized conservation projects and initiatives, such as re-introducing animals into their former ranges, handling confiscated specimens, and halting the spread of invasive species. The Invertebrate Conservation Sub Committee ICSC was established in 2005 to tackle the enormous challenge of how to manage conservation action for the most speciose taxonomic grouping on Earth. The ICSC’s responsibilities are the implementation of invertebrate conservation priorities with respect to the SSC’s Mandate and agreed contributions to the IUCN Intersessional Programmes. As such, the SSC ICSC advises the SSC Chair and Steering Committee on implementation of the agreed priorities, identifies other emerging issues of concern for invertebrate conservation and seeks out new and relevant partnerships for invertebrate conservation. The ICSC has worked hard to create an appropriate structure within the SSC network of Specialist Groups in order to achieve these objectives. Check http://www.iucn.org/ for more information. Contents Pages Photographic evidence of heavy infesta3on on Mille%a pinnata (Fabaceae) by Cyclopelta siccifolia (Westwood) (Pentatomoidea: Dinidoridae). Rohan Joshi, Girish Pathak and H.V. Ghate .. ... ... ... ... 23 Observa3on on S3ngless bee (Trigona iridipennis) (Hymenoptera: Apidae: Meliponini) preda3on by Jumping Spiders (Sal3cidae): with a note on monophagy. Raju Vyas ... ... ... ... ... ... ... 47 A Note on Dorysthenes rostratus (Fabricius) (Cerambycidae: Prioninae) from Coimbatore. H.V. Ghate ... ... 89 Biodiversity of buIerflies in Sirumalai hills, Dindigul, Tamil Nadu. Joy Sharmila and Pandi ... ... ... 1012 A report on the habitats of aqua3c and terrestrial leeches of West Bengal. C.K. Mandal , P.K. Bandyopadhyay and Amlan Kumar Mitra ... ... ... ... ... ... ... ... ... ... 1315 Terminalia catappa: a new larval food plant of Atlas moth A8acus atlas (Linn.) Lepidoptera: Saturniidae) S. R. Aland and G. P. Bhawane ... ... ... ... ... ... ... ... ... 1720 Odonates of North Orissa University Campus and adjoining areas, Orissa. Sunit Kr. Das, S. D. Rout and H.K. Sahu ... 2123 Announcement ... ... ... ... ... ... ... ... ... ... ... ... ... 24 Bugs R All ISSN 2230 7052 No. 18, Dec 2011 Species Survival Commission (SSC) & Invertebrate Conservation Sub Committee (ICSC)

Upload: zoo-wild

Post on 28-Mar-2016

217 views

Category:

Documents


3 download

DESCRIPTION

Newsletter of the Invertebrate Conservation & Information Network of South Asia (ICINSA)

TRANSCRIPT

Page 1: Bugs R All 18 December 2011

Bugs R A!

Newsletter of the Invertebrate Conservation & Information Network of South Asia

The IUCN Species Survival Commission (SSC) is a science-based network of some 7,500 volunteer experts from almost every country of the world, all working together towards achieving the vision of, “A world that values and conserves present levels of biodiversity."

Most members are deployed in more than 100 specialist Groups Task Forces. Some groups address conservation issues related to particular groups of plants or animals while others focus on topical issues, such as reintroduction of species into former habitats or wildlife health. Members include: researchers, government officials, wildlife veterinarians, zoo and botanical institute employees, marine biologists, protected area managers, experts on plants, birds, mammals, fish, amphibians, reptiles, and invertebrates.

Working in close association with IUCN’s Species Programme, SSC’s major role is to provide information to IUCN on biodiversity conservation, the inherent value of species, their role in ecosystem health and functioning, the provision of ecosystem services, and their support to human livelihoods.

SSC members also provide scientific advice to conservation organisations, government agencies and other IUCN members, and support the implementation of multilateral environmental agreements.

The technical guidelines produced by the SSC provide guidance to specialized conservation projects and initiatives, such as re-introducing animals into their former ranges, handling confiscated specimens, and halting the spread of invasive species.

The Invertebrate Conservation Sub Committee ICSC was established in 2005 to tackle the enormous challenge of how to manage conservation action for the most speciose taxonomic grouping on Earth. The ICSC’s responsibilities are the implementation of invertebrate conservation priorities with respect to the SSC’s Mandate and agreed contributions to the IUCN Intersessional Programmes. As such, the SSC ICSC advises the SSC Chair and Steering Committee on implementation of the agreed priorities, identifies other emerging issues of concern for invertebrate conservation and seeks out new and relevant partnerships for invertebrate conservation. The ICSC has worked hard to create an appropriate structure within the SSC network of Specialist Groups in order to achieve these objectives. Check http://www.iucn.org/ for more information.

Contents PagesPhotographic  evidence  of  heavy  infesta3on  on  Mille%a  pinnata  (Fabaceae)  by  Cyclopelta  siccifolia  (Westwood)  (Pentatomoidea:  Dinidoridae).  Rohan  Joshi,  Girish  Pathak  and  H.V.  Ghate    ..   ...   ...   ...   ...                           2-­‐3Observa3on  on  S3ngless  bee  (Trigona  iridipennis)  (Hymenoptera:  Apidae:  Meliponini)  preda3on  by  Jumping  Spiders  (Sal3cidae):  with  a  note  on  monophagy.  Raju  Vyas    ...   ...   ...   ...   ...   ...   ...                           4-­‐7A  Note  on  Dorysthenes  rostratus    (Fabricius)  (Cerambycidae:  Prioninae)  from  Coimbatore.    H.V.  Ghate  ...   ...                           8-­‐9Biodiversity  of  buIerflies  in  Sirumalai  hills,  Dindigul,  Tamil  Nadu.    Joy  Sharmila  and  Pandi  ...   ...   ...                              10-­‐12A  report  on  the  habitats  of  aqua3c  and  terrestrial  leeches  of  West  Bengal.  C.K.  Mandal  ,  P.K.  Bandyopadhyay  and  Amlan  Kumar  Mitra    ...   ...   ...   ...   ...   ...   ...   ...   ...   ...                              13-­‐15Terminalia  catappa:  a  new  larval  food  plant  of  Atlas  moth  A8acus  atlas  (Linn.)  Lepidoptera:  Saturniidae)    S.  R.  Aland  and  G.  P.  Bhawane  ...   ...   ...   ...   ...   ...   ...   ...   ...                              17-­‐20Odonates  of  North  Orissa  University  Campus  and  adjoining  areas,  Orissa.    Sunit  Kr.  Das,  S.  D.  Rout  and  H.K.  Sahu  ...                    21-­‐23Announcement  ...   ...   ...   ...   ...   ...   ...   ...   ...   ...   ...   ...   ...                              24

Bugs R AllISSN 2230 – 7052 No. 18, Dec 2011

Species Survival Commission (SSC) & Invertebrate Conservation Sub Committee (ICSC)

Page 2: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 2

On   14th   May   2011,   in   Pune,   Maharashtra   State,   we  came   across   a   massive   infesta;on   of   Cyclopelta  siccifolia     (Westwood),  a  Dinidoridae   bug,    on  a   large  20m   tall   Pongamia   glabra   tree   (as   per   recent  nomenclature   Pongamia   glabra   =   Pongamia   pinnata  and     the   current   valid   name   of   this   tree   is  MilleGa  pinnata.     (Anon   2010)   (Photo   1).     Also   the   current  family  name  is  Fabaceae  instead  of  Leguminosae.

Cyclopelta   siccifolia   is   a   common   Pentatomoid   bug  found   in   Pune.     Distant   (1902)   men;oned   this   bug  under   subfami ly   Din idor inae   of   the   Fami ly  Pentatomidae.  In   recent  years  Subfamily  Dinidorinae   is  considered   as   a   separate   Family   called   Dinidoridae  (Schuh   and   Slater,  1995).   Among   several   other   places,  Distant   (1902)   recorded   the   locali;es   of   this   bug   as:  Bombay,   Boreghat   and   Poona.   Distant   also   men;oned  that   one   specimen   from   Indian   museum   has   a   label  data   saying   ‘Insects   which   infest   Erythrina,   several  species  and   other   Leguminoceae   from  Poona.’  Beeson  (1941)   in   his   voluminous  compila;on  on   Forest   insects  has  reported  C.  siccifolia   to   be  congrega;ng  on  twigs  in  massed   colonies   to   feed.  It   has   also   been   pointed   out  that   the  colony  may  also  be  so  crowded  that  the  bodies  of   bugs   may  also   overlap   and   that   these   insects   have  pungent   odour.   Among   the   host   plants   recorded   by  Beeson   (1941)  are   species   of  plants  Erythrina,  Cajanus  and   Pongamia.   More   recently,   Naveed   et   al.   (2000)  reported   heavy   infesta;on   of   the   same   bug   on  Pongamia   glabra   in   Karnataka.     Naveed   et   al.   (2000)  also   reported   actual   numbers   of   nymphs   and   adults  indica;ng  that  the  bugs  were  in  excess  of  4000  nymphs  per   tree   of   Pongamia   and   more   than   150   adults   per  tree.

Although  exact  numerical  count  could  not  be  es;mated  in   our   locality,  there  were  roughly  800  bugs  within  first  2m  from  the  base  of  tree  (Photo  2).  The  upper  branches  of   the   tree   had   many  more   and   these   were   seen   in  clusters.  Majority  of   the  bugs  were   ac;vely  feeding  on  the  leaf  rachis  and   small  green   stems.  There  were  also  patches  of  bugs   siZng   on   the   bark  of   the   main   trunk  and   it   was   difficult   to   ascertain   if   these   bugs   were  feeding.  The  colony  was  extremely  crowded  at  places  as  the   bugs   were   piled   on   top   of   each   other   (Photo   3).  Most  of  the  observed  bugs  were  adults.  But  about  10%  

were   in   the   last   moul;ng  stage  and   on   16th   May  there  were  no  nymphs  at  least  in  the  lower  parts  of  the  tree.  

Cyclopelta   siccifolia   was   originally   described   as  Aspongopus  siccifolia  by  Westwood.  The  name  siccifolia  is   probably   represen;ng   “dry   leaf-­‐like”   membrane   of  the  hind  wing  of  this  bug.  These  bugs  also  appear   to  be  reluctant  to  fly  even  when  disturbed  but  prefer  to  crawl.  Even  when   dislodged,  these  bugs   fall   down   on   ground  and   crawl   over   the   plant   again.   Another   interes;ng  thing   is   that   there  were  at   least   4   other   plants  of   the  same  species  nearby  but  these  did  not  have  any  bug.

Acknowledgments  We  are   grateful   to   the   authori;es   of   Modern   College,  Pune,  for  facili;es  and  encouragement.  This  work  is  part  of  a  project  “Diversity  of  Pentatomoid  Bugs  of  Pune”.  

ReferencesAnonymus   (2010).   Weed   Risk   Assessment:   Pongamia:  (MilleGa  pinnata  syn.  Pongamia  pinnata)  (2010)  The   State   of  Queensland,   Department   of   Employment,   Economic  Development  and  Innova;on,  Australia.  Pages  1-­‐15.

Beeson,  C.F.C  (1941).  The  ecology  and  control  of  forest  insects  of  India  and  neighbouring  countries.   P  771  (T.P.  1007)   Indian  Reprint  Bishan  Singh,  Mahendra  Pal  Singh  Deheradun  1993.

Distant,   W.L.   (1902).   The   Fauna   of   BriLsh   India   including  Ceylon  and  Burma.  Rhynchota.  Vol.   I  (Heteroptera).   Taylor  and  Francis,  London,  U.K.  438  pp.

Naveed   A,   Naik   K.L,   HoseB   B.B.   (2000).   Infesta;on   of  Pentatomid  bugs  on  Pongamia  glabra  W   in   the   B.   R.   Project  area   of   Western   Ghats   of   Karnataka.   Entomon,   251(4):  341-­‐345.

Schuh,  R.   T.,   and   Slater   J.   A.   (1995).   True   Bugs  of   the  World  (Hemiptera:   Heteroptera).   Classifica;on   and   Natural   History.  Cornell  University  Press,  Ithaca,  New  York,  U.S.A.  

Photographic  evidence  of  heavy  infesta3on  on  Mille%a  pinnata  (Fabaceae)  by  Cyclopelta  siccifolia  (Westwood)  (Pentatomoidea:  Dinidoridae)

Rohan  Joshi,  Girish  Pathak  and  H.V.  GhateZoology  Department,  Modern  College  of  Arts,  Science  and  Commerce  

Shivajinagar,  Pune  411  005,  Maharashtra,  [email protected]

Page 3: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 3

2

3

1

Photo  1.  Host  tree  of  Cyclopelta;  Photo  2  and  3.  Cyclopelta  colony  

Page 4: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 4

The   Vishwamitri   River   Project   office   is   situated   in   the  middle   of  Vadodara   City,  Gujarat   and   the  exterior  wall  cavi;es  house  a  few  bee  nests  at  various  heights  2.0  to  2.4  m   from   the   ground   level   and   almost   close   to   the  roof.   Total   seven   nests   of   s;ngless   bees   (Trigona  iridipennis)   were   found   on   the   office   walls,   the   inter  distance  of  each  nest  varying  from  10  cm  to  300  cm.  All  these  nests  were  observed  regularly  to   know   the  bees’  ac;vity.

The  s;ngless  bee  is  the  smallest  (4.0  to  5.0  mm  long)  of  the  honey  producing  bees.  They  are  highly  social   insects  like  honey  bees  living  in  permanent  colonies,  nes;ng  in  old   walls,   logs,   crevices   and   such   other   concealed  places.  S;ngless  bee  colonies  are  perennial  and   usually  consist   of   hundreds   or   thousands   of   workers   (Wille,  1983)   and   are   highly   social   bees   (Michener,   2000).  Usually,   this   species   select   nes;ng   sites   as   hollows   in  tree  trunks,  stone  walls,  mud  walls,  corners  of  walls  and  termite   mounds.   The   cavity   diameter   varies   with   the  type   of   nes;ng   sites.   Most   of   the   colonies   have   a  resinous   entrance   tube.     Inside   the   colony,   food   pots  and  brood  cells  are  arranged  separately.    Food  pots  are  larger   than   brood   cells   and   are   sealed   when   filled.  Brood  cells  are  compactly  arranged  in  clusters.  They  can  be  domes;cated   and  used   for  the  produc;on  of  honey  and  wax.

The  honey  bees  (Apinae),  bumble  bees  (Bombinae)  and  s;ngless   bees   (Meliponinae)   belong   to   the   family  Apidae.   The   s;ngless   bees   belong   to   the   super   family  Apoidea,   family   Apidae   and   sub   family   Meliponinae,  further   Meliponinae   consists   of   two   genera  Melipona  and   Trigona  which   belong   to   the  tribe  Meliponini   and  Trigonini,   respec;vely.  Trigona   is   the   largest   and  most  widely   distributed   genus,   which   includes   130   species  under   ten   sub-­‐genera.  Melipona   consists  of   50   species  and   confined   to   the   neotropics.   All   Asian   and   African  species  of   s;ngless   bees  belong   to   the   tribe  Trigonini.  The  various  genera  in  this  tribe  include  Trigona,  Plebeia,  Tetragona   and   Nanotrigona   (Camargo   et   al.   1988).  Trigona   colonies   can   survive   themselves   for   years  without  ar;ficial   feeding  and   they  will  not  desert   their  nests  for  many  years.  

Trigona   iridipennis   was   first   originally   described   from  Ceylon   (=Sri   Lanka)  by  Smith   (1954).  The  most  common  

species   of   s;ngless   bee   found   in   India   was   known   by  name   Melipona   iridipennis.   Later   this   species   was  transferred   to   the   genus   Trigona   as   Melipona   is  restricted   only   to   Neotropics   (Michener,   1974).   It   is  distributed  in   India  and  Sri  Lanka  (Sakagami,  1978).  This  species   is   characterized   by   black   with   white   hairs   on  face  and   sides,  orange  colour   triangular   abdomen   with  iridescent   wings,   hence   the   name   iridipennis.   The  species   is   widely   distributed   in   many   Indian   states,  including   Karnataka   (Biesmeijer,   1993)   Kerala   (Mohan  and  Devanesan,  1999),  Maharashtra  (Johi  et.  al.,  1998),  Andhra   Pradesh   (Ramanujam,   1993)   and   Tamil   Nadu  (Swaminathan,  2000).  

The  nests  of  s;ngless  bees  usually  consist  of  an  external  tube,   internal   tunnel,   resin   dump,  waste   dumps,   wax  dumps,   food   pots   for   storing   pollen   and   honey.   The  length   of  entrance   tube   varies   from  6-­‐25  mm  long  and  projected  at   an   angle  object,  either  bark  or  wall   (Photo  1).   Four   nests   out   of   seven   nests   are   found   on   and  nearer   the  office   entrance.     These  bees  defend   only  in  case  of  damages  to  the  nest  or  if  any  predator  is  sighted  in  proximity.    The  s;ng  of  these  bees  is  greatly  reduced  without   an   effec;ve   ;p,   hence   their   defense  mechanism  is  by  chasing  the  intruders  by  bi;ng,  geZng  entangled   in   the   intruder’s   hair   or   by   geZng   into   the  nose,  ears  and  eyes.  

Therefore   I  was   being   careful   while   inspec;ng   all   the  nests,  and  to   know  why  these  bees  are  disturbed?  And  what  are  the  reasons  behind  these  bees  being  disturbed  so   oren.   I  observed   that   bees  were   predated   by  few  species   of   Jumping   spiders,   spider   hiding   in   nearby  crevices   arer   the   catch.   Jumping   spiders   are   locally  know  as   ‘Makhi  no  Vagh’  (Makhi  =  fly;  Vagh   =   ;ger)   in  Gujara;  vernaculars  due  to   its  hun;ng  habits.  Later   the  spiders  were  collected  for   further   iden;fica;on;   it  was  iden;fied  as  Plexippus  sp.  and  Phidippus  sp.,  these   two  species   spiders   are   belonging   to   the   family   SalLcidae  Blackwall,   1841.   The   Indian   Spider   Fauna   is   rich   and  diversified,  and  contains  over  1447  species  belonging  to  365   genera   from  60   families,   including   122   species   of  Sal;cidae   spiders   as   most   dominant   spider   family  (Siliwal   and   Molur,   2007).   The   Sal;cidae   family   is   the  most   dominant   group   with   over   seventeen   species   of  spiders   reported   from   the   Gujarat   State   (Patel,   1971  and  Anon,  2010).

Observa3on  on  S3ngless  bee  (Trigona  iridipennis)  (Hymenoptera:  Apidae:  Meliponini)  preda3on  by  Jumping  Spiders  (Sal3cidae):  with  a  note  on  monophagy      

Raju  Vyas505,  Krishnadeep  Tower,  Mission  Road,  Fatehgunj,  Vadodara  390  002,  Gujarat,  India

[email protected]

Page 5: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 5

Sal;cidae  spiders  are  ac;ve  diurnal  hunters,  they  do  not  construct  web  to  catch  their  prey  but  these  spiders  hunt  their   prey   by   the   use   of   their   superior   eyesight   to  dis;nguish   and   track   their   intended   meals,   oren   for  several   inches.   Then,   they   pounce,   giving   the   insect  litle   to   no   ;me   to   react   before   succumbing   to   its  venom.  They  are   capable   of   learning,   recognizing,  and  remembering  colours  (Jacob  et  al.,  2007).  

The   spiders   oriented   towards   the   tube   entrance,   sit  below   the   entrance   at   4   to   10   cm   distance,  wait   and  watch  for  further  strategies  (Photo  2).  When  many  bees  land   on   the   entrance   of   the   nest,   the   spider  immediately   moves   towards   the   entrance   and   very  swirly  atacks   on   the  bees.  Arer   a   successful   atempt  the   spider   immediately   runs   away  from   the   entrance,  arer   catching   a  bee,  either   the   spider   hide   in   crevice,  run  or  jump  away  from  the  nest  (Plate  A).

The   bee   preda;ons   by  a   number   of   spiders   (5  adults/day)   was   observed   regularly  during  day   from   07:00   to  18:00  hours  but   in  morning  8  to  9  hours  and   arernoon  up   to   16:00   most   of   spiders   were   most   ac;ve.   The  preda;on   rates   were   calculated   on   a   ten   day  observa;on   (n=52)   from   11th   June   to   20th   June   2011.  The  preda;on  rate   calculated  per   day  was   total   5  bees  (3-­‐7   average)   predated   by   two-­‐five   spiders   regularly  from  each  of  the  nests.

The  high  number  of  successful  atacks  (93.3%;  n=48)  by  spiders  were  observed  only  on  incoming  bees,  whereas  very  few   successful   atacks  were  recorded   (5.7%;   n=3)  when  bees  were  disturbed  by  prior  failure  atacks,  only  one  atempt  was  observed  when   the   spider   succeeded  to  catch  a  bee,  while  the  bee  was  leaving  the  nest.  They  seem  to  fly  out  without  any  trouble  whatsoever,  but  on  their   return   they   oren   hover   outside   the   entrance  before  landing  on  the  nest.

In   the   same   vicinity   there   were   few   other   species   of  SalLcidae  spiders  observed  especially  Myrmarahnae  sp.  but   they   never   atempted   or   predated   any   s;ngless  bees,  during  the  study.    Also,  I  found  few  medium  sized  webs   of   Crossopriza   layoni   (Family   Pholcidae)   with   a  number   of  dead   remains  of   bees.  The  C.   layoni   web   is  very   close   to   one   of   the   bees   nest   entrance   for   easy  prey.   Usually   when   the   bees   were   disturbed   by   any  predators,   a   number   of   worker   bees   hovered   around  the  nest  entrance  and  some  of  these  are  trapped   in  the  web.    

Most  of   the   Jumping  spiders  (SalLcidae)   are  known  as  polyphagous   predators,   feeding   on   a   wide   variety   of  arthropod   taxa   including   Odonata,   Orthoptera,  

Homoptera,   Lepidoptera,   Diptera   and   Hymenoptera.  Present   observa;ons   indicate   that   Plexippus   sp.   and  Phidippus   sp.  spiders  here   are  feeding  on  a  single  prey  species  in  diet  as  S;ngless  bee  (T.  iridipennis),  indica;ng  a  trend   towards   the  monophagy  habits.    Many  species  of   jumping   spiders   have  been   observed   to   atack   and  consume   prey   selec;vely,   but   the   monophagous  feeding  patern  observed  here   is   rather   an   instance   of  faculta;ve  prey  specializa;on,  forced  on  the  spider  due  to   an   abundance   of   single   prey   taxonomy   in   the  par;cular   observa;onal   habitat.   Nyffeler   and   Benz  (1988)   recorded   feeding   patern   of   Achaearanea  riparia,   the   same   spider   species   which   exhibits   a  polyphagous   feeding   patern   in   an   environment   with  high   diversity   of   poten;al   prey   species   may   show   a  trend   towards   monophagy   under   the   reverse  condi;ons.  Monophagy  in   spiders  is   not   common,  and  is   usually  observed   in  habitats   providing  high   numbers  of  par;cular   types  of  prey  (Riechert  and  Lockley  1984).  Greenstone  (1979)  suggested  that  in  spiders,  polyphagy  may  be  necessary  for   nutri;onal   reasons  by  op;mizing  essen;al   amino   acid   composi;on,   performance   of  successful   reproduc;on   of   progeny.   Here   the  monophagy   habits   in   Salitcidae   (Phidippus   sp.   and  Plexippus  sp.)  are  a  further  subject  to  research  that  they  whether  produce  viable  offspring  or  not.    

Present   observa;ons  of  Salitcidae   spider  were   feeding  on   T.   iridipennis,   are   supported   by   an   earlier  observa;on  of  Penney  and   Gabriel   (2009).  Penney  and  Gabriel   (2009)   documented   pre-­‐specific   preda;on  behaviour   in   a  species  of   Sal;cidae  spider   (Menemerus  biviUatus)   feeding   on   s;ngless   bees   (Hypotrigona  gribodoi)  from  primary  forests  of  Gambia,  West  Africa.                  According   to   Rao   et   al.   (2008)   s;ngless   bees   have   an  ability   to   escape   intercep;on   by   a   spider   web.  Therefore  in  context,  s;ngless  bees  and  jumping  spiders  might   have   some   evolu;onary   tac;c   developed,  especially   tac;cs   of   watch   and   wait   for   preda;on   at  s;ngless   bee   colony.     Jumping   spiders   are   generally  carnivorous;  many  species  have  been   known  to   include  nectar   in  their  diet  (Jackson  et  al.  2001).  Here,  observed  that   most   of   bees   are   vic;mized  when   they  return   to  the  nest,   the  ;me  when   the  vic;m  bee  is   loaded   with  nectar   and   pollen,  which   might   be   a   part   of   food   i.e.  indirectly   a   part   of   the   vegetarian   feeding   habit   of  sal;cidae  spiders.            

ACKNOWLEDGMENTSI   am   very   thankful   to   Dr.   B.   H.   Patel   for   providing  relevant   literatures   and   species   iden;fica;on.   Thanks  Dr.   B.   M.   Parasharya,   Bio   Control   Department,  Agricultural   University,   Anand   for   allowing   me   to   use  

Page 6: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 6

laboratory.   Thanks   to   D.   Talpada,   Execu;ve   Engineer,  Vishwamitri   River   Project,  Vadodara   for   allowing  me   in  office  environ  to  study.        

REFERENCESAnon.  (2010).  Spiders  of  Gujarat.  Gujarat  State  Forest  Department,  Gandhinagar.

Biesmeijer,  K.  (1993).  S;ngless  bees:  Discussion  and  paper  at  the  Interna;onal  symposium  on  pollina;on  tropics  Pegone  1:  6-­‐8.

Camargo,  J.M.F.,  Moure,  J.S.  and  Roubik,  D.W.  (1988).  Melipona  yucatanica,  a  new  species  (Hymenoptera:  Apidae:  Meliponinae)  S;ngless  bee  dispersal  across  the  Carabian  arc  and  post-­‐  Eocene  vieariance.  Pan.  Pacif.  Entomol,  64:  147-­‐157.

Devanesan,  S.,  Nisha,  M.  M,  Bennet,  R.  and  Shailaja,  K.  K.  (2002).  Foraging  behavior  of  s;ngless  bees,  Trigona  iridipennis  Smith,  Insect  Environ.,  8(3):  131-­‐133.

Greenstone,  M.  H.  (1979).  Spider  feeding  behaviour  op;mises  dietary  essen;al  amino  acid  composi;on.  Nature  282:  501-­‐503.

Jacob,  E.  M.,  C.T.  Skow,  M.  P.  Haberman  and  A.  Plourde.  (2007).  Jumping  spiders  associate  food  with  color  cues  in  a  T-­‐maze.  Journal  of  Arachnology  35:  487-­‐492.

Jackson,  R.  R.,  S.  D.  Pollard,  X.  J.  Nelson,  G.  B.  Edwards  and  A.  T.  Barrion.  (2001).  Jumping  spiders  (Araneae:  Sal;cidae)  that  feed  on  nectar.  Journal  of  Zoology.  London  255:  25-­‐29.

Joshi,  M.A.,  Lakshmi,  K.  and  Suryanarayana,  M.  C.  (1998).  Melitopalynological  inves;ga;ons  on  Apis  and  Trigona  honeys  in  and  around  Pune,  Maharashtra.  Indian  Bee  J.,  60(2):  90-­‐98.

Michener,  C.  D.  (1974).  The  social  behaviour  of  the  bees:  A  comparaLve  study.  Harvard  University  Press,  Cambridge,  p.  404.

Michener,  C.  D.  (2000).  The  Bees  of  the  World,  Tribe:  Meliponinae,  pp.  779-­‐805.

Mohan,  R.  and  Devanesan,  S.  (1999).  Dammer  bees,  Trigona  iridipennis  Smith.  (Apidae:  Meliponinae)  in  Kerala.  Insect  Environ.,  5  (2):  79.

Nyffeler,  M.  and  G.  Benz.  (1988).  Prey  analysis  of  the  spider  Achaearanea  riparia  (Blackw.)  (Araneae,  Theridiidae),  a  generalist  predator  in  winter  wheat  fields.  J.  Appl.  Entomol.  106:  425-­‐431.

Patel,  B.  H.  (1971).  Studies  on  some  spiders  (Araneae:  Arachnida)  from  Gujarat,  India.  Ph.  D.  Thesis,  Sardar  Patel  University,  Vallabh  Vidyanagar,  Gujarat.

Ramanujam,   C.   G.   K.,   Fa\ma,   K.   and  Kalpana,   T.   P.   (1993).  Nectar  and  pollen  sources  for  Dammer  Bee  Trigona  iridipennis  Smith,  in  Hyderabad  (India).  Indian  Bee  J.,  12:  25-­‐28.

Rao  D.,  K.  Cheng  and  M.  E.  Herberstein.  (2008).  S;ngless  bee  response  to  spider  webs  is  dependent  on  the  context  of  encounter.  Behavior  Ecology  Sociobiology  63:209-­‐216.

Riechert,  S.  E.  and  T.  Lockley.  (1984).  Spiders  as  biological  control  agents.    Annu.  Rev.  Entomol.  29:  299-­‐320.

Roopa,  C.A.  (2002).  Bioecology  of  s;ngless  bees,  Trigona  iridipennis  Smith,  M.Sc.  (Agri.)  Thesis,  Bangalore  (India).

Sakagami,  S.  F.  (1978).  Tetragonula  s;ngless  bees  of  the  con;nental  Asian  and  Sri  Lanka  (Hymenoptera:  Apidae).  J.  Fac.  Sci.  Hokkaido  Univ.  Ser.  Zool.,  21:  165-­‐247.

Siliwal,  M.  and  S.  Molur.  (2007).  Checklist  of  spiders  (Arachnida:  Araneae)  of  south  Asia  including  the  2006  update  of  Indian  spider  checklist.  Zoos’  Print  Journal  22(2):  2551-­‐2597.

Smith,  F.  G.  (1954).  Notes  on  the  biology  and  waxes  of  four  species  of  African  Trigona  bees  (Hymenoptera:  Apidae).  In:  Proc.  R.  Ent.  Soc.  Lond.  Ser.  A.,  29(46):62-­‐70.

Swaminathan,  T.  (2000).  Studies  on  s;ngless  bees.  M.Sc.  (Agri.)  Thesis,  TNAU,  Coimbatore.

Wille,  A.  (1983).  Biology  of  s;ngless  bees.  Ann.  Rev.  Entomol.,  28:  41-­‐64.

Page 7: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 7

A

1 2

Photo  1:  The  long  resinous  entrance  nest  tube  of  S\ngless  bees  (Trigona  iridipennis).

Photo  2:  The  Jumping  spider  (Sal\cidae,  Plexippus  sp.)  orients/approaches  towards  the  entrance  of  S\ngless  Bee  nest  (Trigona  iridipennis)  for  further  a`ack  on  prey.                                  Plate  A:  The  spider  is  return  from  the  nest  aaer  a  successful  a`empt  and  spider  with  s\ngless  bee.  

Page 8: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 8

A  note  on  Dorysthenes  rostratus    (Fabricius)  (Cerambycidae:  Prioninae)from  Coimbatore

H.V.  GhateModern  College  of  Arts,  Science  and  Commerce,  Shivajinagar,  Pune,  India

[email protected]

During  a  short  visit   to  Coimbatore  for  a  Buterfly  meet,  held   in   the   second   half   of   October   2010,   two   of   my  colleagues   collected   a   dead   Cerambycidae   beetle   and  brought   it  to  me.  It  was  diagnosed  as  a  member  of   the  subfamily   Prioninae   on   the   basis   of   the   posi;on   of  head,  typical  shape   of   prothorax   and   other   characters.  These  beetles  were  present   in  quite  good  numbers  and  were   atracted   to   the   light   (locality:  on   the   campus   of  Bharathiyar  University,  Coimbatore)  during  late  October.

Based   on   the   keys   given   by  Gahan   (1906),   the   beetle  was   iden;fied   as   Dorysthenes   rostratus   (Fabricius  1792).   Genus   Dorysthenes   includes   moderate   sized  beetles   with   mandibles   that   are   long,   pointed,   and  curving   downwards   and   backwards.   Other   characters  include:   large   eyes,   subimbricate   antennae,   and   tarsi  with   lobes   of   the   third   joint   narrowed   and   usually  spined  at  the  apex.  The  species  rostratus  was  diagnosed  due   to   presence   of   a   prominent   prosternal   process  which   is   directed   downward   and   strongly   forward  towards  the  curved  mandibles.  The  detailed  characters  of   the   genus   as   well   as   the   species,   along   with  illustra;ons,   are   given   by   Gahan   (1906).   Hence   brief  descrip;on   is  given   below.  Suppor;ng  photographs  are  provided.    

  ‘….Antenniferous   tubers   depressed   and   separated   by  narrow   channels,  antennae   short   not   reaching   beyond  the   middle   of   the   elytra,   fourth   to   eleventh  antennomeres   produced   each   into   an   angulated  process   at   the   apex   on   the   anterior   side.   Pronotum  convex   more   or   less   transversely   hexagonal,   its   sides  produced   into   a   flat   angular   process   at   the   middle,  while   its   front   and  hind   angles  are   rounded.  Elytra  are  less   than   twice   as   long   as   broad,   and   rounded   at   the  apex.  In  legs  third  joint  of  the  middle  and  hind  tarsi  not  cler   beyond   the  middle,  each  of   its  lobes  narrowed   to  the  apex  and  usually  ending  in  the  sharp  spine.  All  these  characters  are   seen   in   dorsal   view   of  the  insect  (Photo  1).  In  the  ventro-­‐lateral   view   a   long  prosternal   process  (men;oned   above),  which   is  dis;nctly  pointed   distally,  is  evident.  So   also  are  seen   the  prominent,  curved   and  pointed   mandibles   (see   Photo   2   and   3).   In   a   related  species,   Dorysthenes   (Dissosternus)   perLi,   described  originally   by   Hope   and   which   is   found   in   Pune,   this  process  is  distally  bifid.  

The   specimen   collected   from   Coimbatore   was   male  (total   length   35mm).   Distribu;on   of   this   species,   as  given   by   Gahan   is   Mysore   and   Madras.   Interes;ngly  enough,   Bainbrigge   Fletcher   (1914),   in   his   excellent  book  on  South  Indian  Insects,  stated  that   this  species….  ‘Oren  comes  to   light  in   large  numbers  at  the  beginning  of   the   North-­‐East   Monsoon…..   during   October-­‐November   at   Coimbatore.’  Thus,  even   arer   about   100  years  since  the  observa;ons  by  Fletcher,  this  beetle  was  common  in  Coimbatore  during  October  2010.

Arer   Gahan   (1906),   the   genus  Dorysthenes   has   been  revised  by  Lameere  (1911).  In  this  revision  many  genera  described   in   Gahan   now   have   been   treated   as  subgenera   under   Dorysthenes.   Key   to   all   genera   and  species  was   also   included   in   this   revision.  The   current  valid  name  of  the  species,  according  to   this   revision,    is  Dorysthenes  (Dorysthenes)  rostratus.

AcknowledgementsI  am  thankful  to  Swapnil  Gaikwad  and  Anand  Padhye  for  their   observa;ons   and   for   collec;ng   this   beetle.   It   is  their   curiosity   that   allowed   me   to   study   this   species.  The   work   on   Cerambycidae   at   Modern   College   was  partly   supported   by   BCUD,   Pune   University.   I   am  grateful   to   the   authori;es   of   Modern   College   for  facili;es  and  encouragement.  

ReferencesGahan,  C.J.   (1906).  The  Fauna  of  BriLsh  India  including  Ceylon  and   Burma.   Coleoptera.   Volume   1.   Cerambycidae.   Indian  reprint  by  Today  and  Tomorrows  Printers  and  Publishers,  New  Delhi.  Pp  329.

Fletcher,   T.B.   (1914).   Some   South   Indian   Insects   and   other  animals  of  importance.  Published  by  Govt.  of  Madras.

Lameere,   A.   (1911).   Revision   des  Prionides.  Dix  –   Neuvieme  Memoire   –   Prionines   (VI),   Annales   de   la   Societe  Entomologique  de  Belgique  LV  (11):  Page  325  –  356.      

Page 9: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 9

1 2

Photo  1:  Dorysthenes  rostratus;  Photo  2  &  3.  Dorysthenes  ventrolateral

3

Page 10: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 10

Madurai   and  Dindigul   districts,  a  part   of   Eastern  Plains  of   the  Deccan  plateau,  have  many  minor  discon;nuous  hill  ranges.    The  minor   ranges  are  Sirumalai,  Pasumalai,  Karandhamalai,   Natham   hills,   Azhagar   hills   and  Nagamalai.    Sirumalai  is  1,200mts  high  and  spread  over  24,281  hectares   lower  hill  ranges  are  scrub  forest  while  major   por;on   of   the  hill   ranges  are  tropical  dry  forest.    The  hills   are  facing  anthropogenic   disturbances  by  way  of   coffee   estate,   rubber   planta;on,   orchards   and  cul;va;on  of  vegetable  crops.    Buterfly  studies  had  not  been   carried   out   in   the   hills,   hence     an   atempt   was  made   to   study   the   biodiversity.   Monitoring   and  mapping   biodiversity   is   the   first   step   in   systema;c  conserva;on   and   planning.   The   main   objec;ve   is   to  document  biodiversity,  to  analyse  buterfly  diversity  and  abundance   which   change   along   seasonal   gradient   in  landscape.   Long   term   ecological   monitoring   has   the  poten;al   to   provide  ;mely  informa;on    on  changes   in  biota  which  will  help  to  reverse  undesired  trends.      

Buterflies  are  widely  recognized   as   valuable  ecological  indicators  and  are  used   to  define  environmental  health  and   their   absence  may  reflect   declining   health.  These  unique   creatures   are   found   in   a   variety   of   habitats.    Buterflies   are   highly   sensi;ve   to   changes   in  temperature,  humidity  and  light   levels.    They  are  a  part  of   any   natural   ecosystem   as   their   adults   perform  pollina;on   and   larvae   feed   on   leaves,   transferring  radiant   energy   trapped   by   plants   to   the   next   tropic  level.    Many  species  are  strictly  seasonal  and  prefer  only  par;cular   set   of   habitats   (Kunte,  1997)   they   are   good  indicators   of   habitat   quality   (Kocher   and   Williams,  2000).  

Buterflies   and   their   caterpillars   are   dependent   on  specific   host   plants   for   foliage,   nectar   and   pollen   as  their   food.     Buterfly   diversity   reflects   overall   plant  distribu;on  especially  that  of  herbs  and  shrubs.    Change  in   land   use   patern   leads   to   landscape   changes   that  reflect   change   in   buterfly   diversity   and   distribu;on.    This   type   of   study   is   essen;al   in   conserva;on   and  management  of  biodiversity.  Since   specific   studies   had  not     been   carried   out   in   Sirumalai   hills,   the   present  study  has   been   designed   to   study   the   biodiversity   of  buterflies  in  Sirumalai  hills.          

Materials   and   Methods:   The   study   area   is   located   in  Sirumalai,  a   small   hill  sta;on  20km  away  from  Dindigul  on   the   Natham   road.     The   hill   lies   between   100   -­‐  

10030’N   la;tude   and   77033’  –   78015’E   longitude,  with  medium   height   which   is   an   isolated   spur   of   Eastern  Ghats.     The   main   stream  of   this   hill   is   Sathayar.     The  study  was   carried   out   for   eight   months   between   July  2008   and   Feb   2009.     The   study   area  was   periodically  visited   once   in   a   month,   and   buterflies   were  enumerated   between   0800   to   1200   hrs.   when   the  buterfly   ac;vity   was   at   peak.     The   study   area   was  marked   into   four   zones   as  Annanagar,  Sirumalaipudur,  AgasLyapuram,   and   KutladampaG.   Iden;fica;on   of  species   was   done   using   available   literature   (Wynter  Blyth,  1957).     The  diversity   patern   was   calculated   by  the  method  followed  by  Rydzanicz  and  Lonc  (2003).

Results  and  Discussion:  A  total  of  38   species  belonging  to   five   families   was   recorded   (Table   1).   All   the   four  zones   showed  high  prevalence  of  Nymphalidae   species  (Table  2).    The  least   sighted  buterflies   in   all  months  at  all   zones  were   the   Indian   skipper   and  Brown   awl.    The  buterflies   in   the  first   zone  had  8   species  belonging   to  two   families,  Second  zone  with  12  species  belonging  to  four   families,   third   zone   with   9   species   with   three  families   and   fourth   zone   with   37   species   represen;ng  five  families   (Table  2).    Fourth   zone  had   the  maximum  representa;on  of  species.    The  species,  White  four  ring,  Pale  grass  blue  and  Angled  castor  were  found   in  all   the  months   at   all   zones.     Fourth   zone   had   the   maximum  number  of  species  with  representa;on  from  all  families  (Table   2  and  3)   and   this  shows  the  diverse   number   of  forest   trees   and   appropriate   ambient   condi;on   for  buterflies.     The   less  diversity  on   other   zones  may   be  related  to  catle  grazing,  firewood  collec;on  and  related  man-­‐made  ac;vi;es  that  affect   larval  food  plants.    High  prevalence   of  buterflies  in   certain  zones  might  be  due  to   habitats   with   least   disturbance.   Mud   puddling   is  common  in   some  tropical  buterflies  (Beck  et   al.  1999).    The   dominant   species   in   KutladampaZ   includes   Small  grass  yellow,  Common  emigrant  and  Tawny  rajah  (Table  4).   Several   species   were   seen   on   soggy   places   which  helps   them   to   fulfill   their   salt   and   protein   deficiency.    The  buterfly  popula;on  at  high  density  in  certain  zones  can  be  atributed   to  high  humidity  due   to   the   loca;on  of  water   falls.    The   prevalence  of  certain   species   in   all  months  at  all   zones  is  due  to  polyphagus  nature  of   the  species.    Certain   species  are   habitat   specific   in   certain  zones   due   to   the   availability   of   food   plants   (Thomas  1995).   Each   habitat   has   a   specific   set   of   micro-­‐environment  for  a  species.  

Biodiversity  of  buHerflies  in  Sirumalai  hills,  Dindigul,  Tamil  Nadu

Joy  Sharmila  and  Pandi                                        Department  of  zoology,  The  American  college,  Madurai,  Tamilnadu,  India

[email protected]

Page 11: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 11

In  Sirumalai  hills,  Nymphalidae  was  the  dominant  family  in   all   zones.  Nymphalidae  had   been   one  of   the   largest  families   of  buterflies   in   Silent   valley  Na;onal   Park  and  Parambikulam  Wildlife  Sanctuary  (Sudheendrakumar   et  al.   2000)   The   dominance   can   be   atributed   to   the  polyphagus   nature   which   help   them   to   live   in   all  habitats.     There   is   an   urgent   need   to   conserve   and  preserve   the   biodiversity   of   buterflies   and   to  immediately   implement   monitoring   schemes   to  evaluate   their   present   status   and   dynamics   over;me.  Addi;onal   measures   are   required   to   counter   human  impacts   and   conserve   cri;cal   habitats   to   circumvent  mass  ex;nc;on   of   endemics.     Buterflies  help   a  lot   to  improve  agriculture,  hor;culture   and   silviculture.     The  Sirumalai   hill   area   shows   high   diversity   of   buterflies  and  hence  need  protec;on.

Bibliography  Beck,  J.E.,  E.  Muhlenberg   and  K.  Fielder   (1999).  Mud  pudling  behavior   in   tropical   buterflies   in   search   of   protec;on   or  minerals?  Oecologia  119:  14-­‐148.

Kunte,   K.J   (1997).   Seasonl   paterns   in   buterfluy   abundance  and   species   diversity   in   four   tropical   habitats   in   northern  Western  Ghats.  Journal  of    biosciences  22:593-­‐603.

Kocher,   S.D   and   E.H.   Williams   (2000).   The   diversity   and  abundance   of   North   American   buterflies   vary   with   habitat  disturbance   and   geography.   Journal   of   Biogeography  27:785-­‐794.

Rydanicz,   K   and   E.   Lonc   (2003).   Species   composi;on   and  seasonal  dynamics    of  mosquito  larvae   in  the  Wroclaw  Poland  area.  Journal  of  Vector  Ecology      28(2):255-­‐266.

Sudheendrakumar,   V.V.,   C.F.   Binoy,   P.V.   Suresh   and   G.  Mathew   (2000).   Habitat   associa;on   of   buterflies   in   the  perambikulam  wild  life  sanctuary  Kerala.   Indian  Journal  of  the  Bombay  Natural  History  Society  97:  193  –  201.

Thomas,   J.A.   (1995).   The   ecology   and   Conserva;on   of  Maculinea   arion   and   other   European   species   of   large   blue  buterfly.   In:   A.S.   Pullin   (ed)   Ecology   and   ConservaLon   of  buUerflies.  Chapman  and  Hall,  London,  180-­‐210.

Wright,   D.H.,   D.J.   Currie   and   B.A.   Maurer   (1993).   Energy  supply  and  paterns  of  species  richness  on  local  regional  scale.    In:   R.E.   Ricklefs   and   D.   Schluter   (eds.)   Species   diversity   in  Ecological  CommuniLes.  Universiy  of  Chicago  press,  London.

Wynter-­‐Blyth,   M.A   (1957).   BuUerflies   of   the   Indian   region,  Bombay  Natural  History  Society.

!

!

!

!

!

!!

!

Plate  1:  Representa\ves  of  bu`erflies  from  Sirumalai  hills

Common  Banded  Peacock Grass  Yellow

Monkey  Puzzle Common  Pierrot

Page 12: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 12

Table 1: Butterflies Prevalent in Sirumalai HillsS.No. Common Name Zoological Name Family1 Common pierrot Castalius rosimon Lycaenidae2 Angled pierrot Caleta caleta Lycaenidae3 Common cerulean Jamides celeno Lycaenidae4 Monkey puzzle Rathinda amor Lycaenidae5 Tailess lineblue Nacaduba dubiosa Lycaenidae6 Pale grass blue Pseudozizeeria maha Lycaenidae7 Plain tiger Danaus chrysippus Nymphalidae8 Great egg fly Hypolimnas bolina Nymphalidae9 Tawny rajah Charaxes bernardus Nymphalidae10 Common baron Euthalia aconthea Nymphalidae11 Common sailer Neptis hylas Nymphalidae12 Angled castor Ariadne ariadne Nymphalidae13 Lemon pansy Junonia lemonias Nymphalidae14 Common crow Euploea Core Nymphalidae15 Blueglassy tiger Danaus limniace Nymphalidae16 Chesnut streaked sailer Neptis Jumbah Nymphalidae17 Indian red admiral Vanessa indica Nymphalidae18 Danaid egg fly Hypolimnas misippus Nymphalidae19 Tawny coster Telchinia violae Nymphalidae20 White four ring Ypthima ceylonica Nymphalidae21 Common mormon Papilio polytes Papilionidae22 Lime butterfly Papilio demoleus Papilionidae23 Blue mormon Papilio polymnestor Papilionidae24 Common rose Tros aristolochiae Papilionidae25 Crimson rose Tros hector Papilionidae26 Common banded peacock Papilio crino Papilionidae27 Dark wanderer Pareronia ceylonica Pieridae28 Common grass yellow Eurema hecabe Pieridae29 Yellow Orange tip Huphina nerissa Pieridae30 Common emigrant Catopsila pyranthe Pieridae31 Common gull Huphina nerissa Pieridae32 White orange tip Ixias marianne Pieridae33 Psyche Leptosia nina Pieridae34 Great orange tip Hebomia glaucippes Pieridae35 Crimson tip Colotis danae Pieridae36 Common jezebel Delias eucharis Pieridae37 Indian skipper Spialia galba Hesperiidae38 Brown awl Badamia exclamationis Hesperiidae

Table 2: Number of Species of butterflies belonging to different families in different zones at Sirumalai hills

Zones Lycaenidae Nymphalidae Papilionidae Pieridae Hesperiidae

Annanagar 2 6 --- --- ---Sirumalaipudur 1 8 1 2 ----Agastiyapuram 1 7 --- 1 ----Kutladampatti 6 14 5 11 1

Table 3: Species diversity at different sites and different months in Sirumalai hillsMonthsMonthsMonthsMonthsMonthsMonthsMonthsMonths

Sites July Aug Sep Oct Nov Dec Jan FebAnnanagar 5 5 5 6 5 5 5 5Sirumalai Pudur 11 10 10 9 10 11 11 10Kutladampatti 25 26 34 37 37 35 36 35Aagartiyaparam 5 5 5 6 8 7 7 7

Table 4: Density pattern of butterflies in Kutladamptatti

Family Lycaenidae OccurrenceCommon pierrot <1%Angled pierrot <1%Common cerulean <1%Monkey puzzle <1%Tailess line blue <1%Pale grass blue 1-5%Family PieridaeCommon jezeebel <1%White orange tip 1-5%Dark wanderer 1-5%Common gull 1-5%Lime yellow butterfly 1-5%Psyche 1-5%Great orange tip 1-5%Yellow orange tip 1-5%Small grass yellow ≥5%Common emigrant ≥5%Family NymphalidaeBrown awl <1%Plain tiger <1%Chestnut streaked sailer <1%Common baron 1-5%Common banded

peacock 1-5%

Common sailer 1-5%Angled castor 1-5%Dark blue tiger 1-5%Danaid egg fly 1-5%Tawny castor 1-5%Great Egg fly 1-5%Lemon Pansy 1-5%Common Indian Crow 1-5%Tawny Rajah ≥5%Family HesperiidaeWhite four ring 1-5%Family PapilionidaeCommon mormon 1-5%Blue mormon 1-5%Common rose 1-5%Crimson rose 1-5<1% Satellite species, 1-5% Subdominant

species, ≥5% Dominant Species

Page 13: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 13

Habitat   ecology  of   leeches   plays   an   important   role   in  distribu;on.     Aqua;c   habitat   consists  of  flowing  water  or   lo;c   and   standing   water   or   len;c.     Len;c   is  subdivided   into   pond  or   palustraine,   lake  or   lacustrine,  paddy  field   and   sewage   or   sewerage.     Lo;c   is  divided  into  hill   stream,  river   or   riverine,  brackish  or  estuarine.    There   are   about   668   leech   species   in   the   world.     In  India,   contemporary   works   on   taxonomy   and   habitat  ecology   on   leeches   include   those   of   Mandal   (1996,  2000,   2004   and   2005),   Bandyopadhyay   and   Mandal  (2005),   Soota   (1977),   Chandra   &   Mahajan   (1976),  Ghosh   (1998)   who   were   the   early   contributors   in   the  field  of  taxonomy  and  ecology  of  leeches  of  India.

Material  and  Methods  Aqua;c   and   terrestrial   leeches   were   collected   using  various  tools.    Arer  cleaning,  the  leeches  were  placed  in  a   tray  with   a  small   quan;ty   of  water   and  were   slowly  killed   with  alcohol.    Just   arer  death,  the   leeches  were  kept   in   70%  alcohol   for   permanent  preserva;on.     Four  percent  of  formalin  was  also  used  as  fixing  fluid.

ResultsOzobranchus:   This   genus   is   represented   by   a   single  species,   Ozobranchus   shipleyi   Harding,   1909   and   is  found   in  both   fresh   and   salt   water   bodies.    Mangrove  vegeta;on  is  their  favourite  habitat.

Glossiphonia  annandalei  Oka,  1921  is  found   to  occur   in  freshwater   habitats   like  lakes  and  ponds.    They  inhabit  aqua;c  vegeta;on   viz.,  Vallisnaria,  water   hyacinth   and  aqua;c  grasses.Glossiphonia  heteroclita   (Linnaeus,  1761)  occur   in  lakes  and   ponds.     They   live   on   submerged   aqua;c   plants.    Some   leeches  were   collected   from  molluscs   and   some  from  beneath  the  leaves  of  water  hyacinth.Glossiphonia  weberi  Blanchard,  1897   is  found  in   ponds,  lakes   and   streams   or   as   free   living.     This   species   has  been   collected   from   molluscs,   aqua;c   beetles,  amphibians  and  leaves  of  aqua;c  plants  also.Batracobdella   reLculata   (Kaburaki,  1921)   are   found   in  ponds  and   pools.    They  live  atached  to   aqua;c  plants  such   as   lotus,   water   hyacinth   and   aqua;c   grasses.    Some   leeches   were   collected   from   beneath   the   lotus  leaves,  some  from  the  body  of  Lymnaea  acuminata  and  

Bellamya  bengalensis.Helobdella   nociva   Harding,   1924   is   found   in   streams,  ponds  and  lakes.    They  have  been  collected   from  under  the  surface  of  bricks  and  earthenware  pots  from  Kolkata  and   from   the   aqua;c   grasses   at   Bankura.     They   stay  amongst  vegeta;on  to  atack  fishes  and  gastropods.  

Hemiclepsis:  This  genus   is   represented   by  two   species  in  West  Bengal.Hemiclepsis   marginata   marginata   (Muller,   1774)   are  found   atached   to   water   hyacinth   and   other   aqua;c  plants.     This   species   is   found   in   freshwater   ponds,  streams  and  Lakes.    They  were  also  collected  from  fresh  water  mussel  Lamellidens  marginalis  from  a  pond  near  Canning   in   the   24   Parganas   district.     They   have   also  been   found  atached   to   Lymnaea,  a  molluscan   species  that   act  as  an   effec;ve  agent   in   transmiZng  the   blood  parasites  of  fishes  and  amphibians.Hemiclepsis   marginata   asiaLca   is   found   on   the  undersurface  of   leaves  of   aqua;c   plants   in   ponds   and  lakes.    Vegeta;on  such  as  water  hyacinth,  lotus,  aqua;c  grasses  are   suitable   habitat   of   this   species.     They   are  collected   from  the   lower   leaf  of   aqua;c   plants,   lotuses  and   are  also   found   atached   to  Bellamya  and   Lymnaea  species.

Paraclepsis:  This   genus   is  represented   by   two   species,  namely   Paraclepsis   praedarix   Harding,   1924   and  Paraclepsis  gardensi  Mandal,  2004.Paraclepsis   praedarix   live   in   lakes,   tanks,   pools,   small  streams  as  free  living  or  atached  to  submerged  ar;cles.    They   were   collected   from   under   immersed   leaves   of  aqua;c  worts,  Lemna  and  other  aqua;c  plants.  Paraclepsis   gardensi   have   been   collected   from   ponds  and   lakes  at  Howrah,  Midnapur  and  north  24  Parganas.    Some   specimens   have   been   found   atached   to  amphibians   and   some   on   leaves   of   aqua;c  worts   and  water  hyacinth.  

Placobdella:  This  genus   is  represented   by  five   species-­‐  Placobdella   emydae,   Placobdella   fulva,   Placobdella  harasundarai,   Placobdella   horai   and   Placobdella  undulate.Placobdella  emydae  Harding,  1920  are  found  under   the  leaves  of  aqua;c  worts  and  submerged  stones  or  bricks.  

A  report  on  the  habitats  of  aqua3c  and  terrestrial  leeches  of  West  Bengal

C.K. Mandal 1, P.K. Bandyopadhyay 2 and Amlan Kumar Mitra 3

1 Zoological Survey of India, 27, J.L. Nehru Road, FPS Building, Kolkata, West Bengal 700016, India2 Parasitology Laboratory, Department of Zoology, University of Kalyani, Kalyani, West Bengal 741235, India

3 Department of Zoology, Ranaghat College, Ranaghat, West Bengal 741202, IndiaEmail: 2 [email protected] (corresponding author)

Page 14: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 14

Placobdella   fulva   Harding,   1924   are   found   under   the  leaves   of   aqua;c   worts,   lotus   leaves,   under   stones   or  bricks.     They   were   mainly   collected   from   under   the  submerged   leaves   of   aqua;c   worts.     They   were   also  found   at   the   edges   of   Unio   shell   and   are   parasi;c   on  turtles.Placobdella  harasundarai  Mandal,  2004  found  in  ponds  only.     This   species   was   collected   from   ‘Harasundarai’  pond   of   Vojerhat,   south   24   Parganas   atached   to   a  submerged   leaf   of   water   hyacinth.     Others   were  atached  to  mollusc  shells.  Placobdella  horai  Baugh,  1960  found  in  tanks,  pools  and  lakes   atached   to   submerged   leaves   of   water   hyacinth  and  submerged  ar;cles.Placobdella   undulate  Harding,   1924   is   found   in   tanks,  pools   and   lakes,   free   lying   or   atached   to   submerged  ar;cles.    They  were  collected  from  submerged  leaves  of  water  hyacinth.  

Nematobdella:   This   genus   is   represented   by   a   single  species  Nematobdella  indica  Kaburaki,  1921.     It  is  found  atached   to   the   stem   of   aqua;c   worts   or   water  hyacinth.  It  was  collected  from  under  submerged  leaves  of  aqua;c  worts.  

Herpobdelloidea:   It   is   represented   by  a   single   species  Herpobdelloidea  lateroculata  Kaburaki,  1921.    They  are  found  in  small  streams  and  ponds.    They  were  collected  from  submerged  leaves  and  roots  of  water  hyacinth  and  aqua;c  grasses.  

Barbronia:   This   genus   is   represented   by   only   one  species,  Barbronia  weberi   (Blanchard,  1897).    They  are  found   in   associa;on  with   glossiphonids   in   ponds,  lakes  and   pools.    Water   hyacinth   and   other   aqua;c   grasses  are   the  main   vegeta;on.     They   have   also   been   found  atached   to   submerged   ar;cles.     They   were   collected  from  submerged  leaves  of  water  hyacinth.

Poecillobdella:   This   genus   is   represented   by   two  species,   Poecilobdella   granulosa   (Savigny,   1820)   and  Poecilobdella   manillensis   (Lesson,   1842).     They   are  found  in  paddy  fields,  ponds,  canals,  swamps  and  rivers.Poecilobdella   manillensis   are   found   in   paddy   fields,  ponds,   swamps,   rivers,   tanks,   sluggish   streams   and  springs.     They  are  also  found  in   tanks,  and   atached   to  the  legs  of  cows  during  grazing.  

Hirudo:   This   genus   is   represented   by   a   single   species  Hirudo  birmanica  (Blanchard,  1894).    They  are  found   in  ponds,  drains,  swamps,  streams  and  rivers  and   in  wells  also.    They  were  collected  from  drains  and  paddy  fields.

Dinobdella:   This   genus   is   represented   by   a   single  

species  Dinobdella   ferox.     They   are   found   atached   to  the  stems   of   aqua;c   worts   in   ponds  and   paddy  fields.  They  were   collected   from   paddy  fields   atached   to   the  leaves  of  aqua;c  worts.  

Haemadipsa:   This   genus   of   terrestrial   leeches   is  represented  by  six  species  i.e.,  Haemadipsa  dussumieri,  Haemadipsa   montana,   Haemadipsa   ornata ,  Haemadipsa  sylvestris,  Haemadipsa  zeylanica  agilis  and  Haemadipsa  zeylanica  monLvindicis  (Table  1).Haemadipsa   dussumieri   Blanchard,   1917   are   found   in  areas   of   mountain   land,   sides   of   lakes.     They   were  collected  from  Darjeeling,  West  Bengal.  Haemadipsa  Montana  Moore,  1927  are  found   in   deep  and   moist   forests   up   to   3000m   height   atached   to  vegeta;on  like  grasses   (Verbinacae  family),  mosses  and  ferns.  Haemadipsa  ornate  Moore,  1927  are  found  in  deep  and  damp  forests.  Chotra,  mosses,  ferns,  grasses  and  bushes  of   litle   plants   are   the   vegeta;on   to   which   they   are  frequently  atached.  Haemadipsa   sylvestris   Blanchard,   1894   are   found   in  moist   places.     Vegeta;on   is   grasses,   moss,   ferns,  creepers,   bushes   near   ponds,   lakes   and   springs   etc.    They   are   the   only   species   found   both   in   plains   and  mountains.     They   can   swim   and   as   such   are   called  amphibious   leeches.     They   are   collected   from   fields  where  cows  graze.  Haemadipsa   Zeylanica   agilis   Moore,   1927   are   found  atached  to  Boro  grasses  and  other  semi  aqua;c  grasses  in   damp  places.     They  are   collected   from  under   stones  in  damp  places  in  Darjeeling.  Haemadipsa   zeylanica   monLvindicis  Moore,  1927   lives  in  damp  ravines  and  drippy  forests  up  to  3000m.  height,  atacks  catle  and  human  beings.    Vegeta;on   is  grasses  and  other  semi  aqua;c  grasses  and  bushes.  

Discussion:   The   present   study   on   habitat   ecology  documents   the   occurrence   of   freshwater   leeches   in  West  Bengal  (Table  2).    Out  of  five  families  of  leeches  in  West  Bengal  four  are  aqua;c.    The  lone  marine/brackish  water   species   recorded   in   this   study   is   Ozobranchus  sipleyi   belonging   to   family  Piscicolidae   (Ghosh,   1998).    Out   of   twenty   three   aqua;c   leech   species,   the  Glossiphonidae   family   includes   fourteen   species   under  six   genera;  Erpobdelidae   includes   three  species,  under  three  genera.    Due  to  the  availability  of  fresh  water  with  extensive   vegeta;on,   aqua;c   species   dominate  amongst   the   leech   species   recorded.     Three   species  Nematobdella   indica,   Herpobdelloidea   indica   and  Barbronia   weberi   of   family   Erpobdellidae   have   been  found   in   the   roots   of   water   hyacinth.     On   the   other  hand,  three  species  of  genus  Glossiphonia,  one   species  of   genus   Hemiclepsis,   one   species   of   genus  

Page 15: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 15

Batracobdella,   two   species   of   genus   Paraclepsis,   five  species   of   genus   Placobdella,  were   found   atached   to  the   submerged   leaves   of   water   hyacinth   and   other  aqua;c  plants.    Four  species  belonging  to  three  genera  Dinobdella,  Poecilobdella  and  Hirudo  of  Hirididae  family  are  mainly  paddy  field  leeches.The   habitat   ecology   of   the   terrestrial   leeches   reveals  the   distribu;on   of   terrestrial   leeches   in   West   Bengal.    Out  of  five  families  of  leeches  in  West  Bengal,  just  one  is  terrestrial.    Habitat  ecology  of  terrestrial   leeches  shows  one  significant   feature  emerging  out  of  this  study,  that  only  Haemadipsa  sylvestris  of  the  six  species  of  leeches  is   available   in  all   the  districts  of  West  Bengal.    It   has  a  high  degree  of  adaptability  and  therefore  is  found  in  the  moist   grassland   of   the   plains   as   well   as   in   the  Mountains.     The  other   five  species  of   the   same  genus  are   found   only   in   the   mountains.   Haemadipsa  dussumieri,   a   southern   Indian   leech   is   also   found   in  West   Bengal,   possibly  due   to   the   similarity   of   habitat  ecology.     The   study   on   habitat   ecology   of   leeches  reveals   the   dominance   of   aqua;c   species   in   West  Bengal.

ReferencesBandyopadhyay,  P.K.  &  C.K.  Mandal  (2005).  On  occurrence  of  five  leeches  in  West  Bengal.  Record  of  Zooogical  Survey  of  India  (part  3–4):  93–101.  

Bha\a,  M.L.  (1955).  Haemadipsa  zelanica  agilis  (Moore)  a  land  leech  from  Nainital  &  Almora.  Proceedings  of  Indian  Science  Congress  AssociaLon  42:  286.

Chandra,  M.  (1976).  On  a  small  collec;on  of  leeches  from  Maharastra  State,  India.  Record  of  Zoological  Survey  of  India  69  (1–4):  325–328.

Chandra,  M.  &  K.K.  Mahajan  (1976).  Leeches  of  Simla  Hills,  Himachal  Pradesh.  Record  of  Zoological  Survey  of  India  69(1–4):  255–259.

Ghosh,  G.C.  (1998).  Leech  fauna  of  West  Bengal.  State  Fauna  Series  3.  Zoological  Survey  of  India  10:  227–249.

Mandal,  C.K.  (1996).  On  the  occurrence  of  the  two  Leeches;  Hemiclepsis  marginata  asiaLca  and  Placobdella  fulva  in  West  Bengal.  Science  and  Culture  62(5–6).

Mandal,  C.K.  (2000).  On  the  occurrence  and  breeding  season  of  the  leech  Placobdella  emydae  in  West  Bengal.  Science  and  Culture  66(7–8):  267–268.

Mandal,  C.K.  (2004).  Endemic  leech  fauna  of  India.  Record  of  Zoological  Survey  of  India:  103  (Part  1–2):  103–110.

Mandal,  C.K.  (2004).  On  some  leeches  of  Arunachal  Pradesh,  India.  State  Fauna  Series  13:  (part-­‐2):  47–48.  

Mandal,  C.K.  (2004).  Paraclepsis  gardensi  (Hirudinea:  Glossiphonidae)  a  new  species  of  leech  from  West  Bengal,  India.  Record  of  Zoological  Survey  of  India  103(Part1-­‐2):  111–114.  

Mandal,  C.K.  (2004).  Placobdella  harasundarai  (Hirudinea:  Glossiphonidae)  a  new  species  of  Leech  from  West  Bengal,  India.  Record  of  Zoological  Survey  of  India  103  (Part1-­‐  2):  99–102.  

Mandal,  C.K.  (2005).  State  Fauna  Series,  5:  Leech  fauna  of  coastal  districts  of  Andhra  Pradesh.  Zoological  Survey  of  India  (part-­‐5):  339–355.

Soota,  T.D.  &  G.C.  Ghosh  (1977).  On  some  Indian  Leeches.  NewsleUer  of  Zoological  Survey  of  India:  3(6):  359–360.

Acknowledgements:   The  first   author   is   grateful   to   Dr.  Ramakrishna,   Director,   Zoological   Survey   of   India,   for  lucid   sugges;ons  during  the   study  of   the   leeches,  and  our   special   thanks   to   Dr.   J.G.   Patanayak   O/C   General  Non-­‐Chordata   Sec;on.   And   deep   gra;tude   to   the  officers   and   staffs,   General   Non-­‐Chordata   sec;on   for  their  valid  sugges;ons.

S.No. Species P L R E Hs Pf S T Remarks1 Haemadipsa dussumieri - - - - - - - + A hill species, suck blood of man and animals2 Haemadipsa montana - + - - - + + + Mainly a mountain species suck blood of cattle and

man3 Haemasdipsa ornata + + + + + + + + They are found both on mountains and plain land,

suck blood of cattle, mammals and man4 Haemadipsa zeylanica agilis - - - - - + + + A hill species, suck blood of man and animals5 Haemasdipsa zeylanica

montivindicis- - - - - + + + Mainly mountain species, suck blood of cattle and

man6 Haemadipsa sylvestris - - - - - + - + It is found both on plain and mountain. Suck blood

of cattle and man

Table 1: Habitat ecology of terrestrial leeches of West Bengal(P - Palustraine; L - Lacustraine; R - Riverine; E - Estuarine; Hs - Hill stream; Pf - Paddy field; S - Swearage; T - Terrestrial)

Page 16: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 16

S.No. Species P L R E Hs Pf S T Remarks1 Dinobdella ferox + - - - - + - - Paddy field leeches are found attached with aquatic

worts2 Glossiphonia heteroclita + + - - - + - - Found attached with submerged aquatic plants eg.

Waterhyacinth, Chara, and to molluscs3 Batracobdella reticulata + - - - - - - - Found attached with submerged lotus leaf and

mollusks of field associated pond4 Glossiphonia weberi + + - - + - - - Found attached with submerged leaf of water

hyacinth and molluscs5 Helobdella nociva + + - - + - - - Found attached with submerged leaf of water

hyacinth, waterlily and molluscs6 Hemiclepsis marginata

asiatica+ + - - - - - + Found attached with submerged leaf of water

hyacinth, lotus7 H. marginata marginata + + + - - - - - Found attached with submerged leaf of water

hyacinth, lotus, aquatic plants8 Nematobdella indica + + - - - - - - Found attached with the roots and, leaves of water

hyacinth9 Herpobdelloidea lateroculat + + + - - + + Found attached with the roots and, leaves of water

hyacinth, aquatic grasses10 Poecilobdella granulosa + + + - + + + - Found attached with the legs of cattle in the pond and

from paddy fields11 Poecilobdella manillensis + + + - + + + - They are found attached with amphibian and

mammals12 Hirudo birmanica + + + + + + - Collected from a bathroom of college street, drains

and paddy field13 Ozobranchus shipleyi - - + + - - - - Found attached with plastorn of a tortoise of zoo

garden, Calcutta14 Paraclepsis praedatrix + + + - - - - - Found attached with submerged leaf of water

hyacinth, lotus, other aquatic plants.15 Paraclepsis gardensi + + - - - - - - Found attached with submerged leaf of water

hyacinth and legs of frogs16 Placobdella emdaelac + + - - - - - - Found attached with submerged leaf of water

hyacinth and submerged articles17 Pbdella fulva + + + - + + + - Found attached with submerged articles, leaf of water

hyacinth; suck fish blood.

Table 2: Habitat ecology of aquatic leeches of West Bengal(P - Palustraine; L - Lacustraine; R - Riverine; E - Estuarine; Hs - Hill stream; Pf - Paddy field; S - Swearage; T - Terrestrial)

Page 17: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 17

Terminalia  catappa:  a  new  larval  food  plant  of  Atlas  moth  A8acus  atlas  (Linn.)  Lepidoptera:  Saturniidae)      

S.  R.  Aland  and  G.  P.  BhawaneDepartment  of  Zoology,  Shivaji  University,  Kolhapur  416  004,  Maharashtra  India

 [email protected]

The   family   Saturniidae   includes   nearly   1200-­‐1500  species   from   all   over   the   world.   Indian   subcon;nent  (from  Himalaya  to  Sri  Lanka)  may  contain  approximately  50   species   (Nassig   et   al.   1996).   Whereas   Arora   and  Gupta   (1979)   recorded   about   40   species  of   silk  moths  from   India   alone.   As   per   views   and   classifica;on   of  Lemaire   and   Minet   (1998)   this   family   is   the   largest  family   of   Bombycoidea  with   nearly   1861   species   with  162   genera   and   9   subfamilies.   The   saturnid   genus  AUacus,   from   tropical   Asia,   encompasses   the   largest  winged   moths   from   family   Saturniidae   (Michener,  1952).   Members   of   this   genus   are   defoliators   of  Eucalyptus  and  Araucauria  in  Australia,  New  Guinea  and  on  trees  in  North  America.  It  has  also  been  reported  on  Pine  in  the  Dominican  Republic.  According  to  Jurriaanse  and   Lineman’s   (1920)   species   of   AUacus   are   not  referred   as   major   pests   of   agriculture.   They   atack  various   cul;vated   plants   such   as   avocado,   guava,  quinine,   citrus   and   tea   in   Indonesia   and   Southeaster  Asia  and  the  Philippines  (Navarro,  1911).    AUacus  atlas  is  reared  on  a  small  scale  China  now  for  commercial  silk  produc;on   (Yan,  2001;  Li,  2005;  Chen   and  Feng,  2009).    Sahu   and   Bindroo   (2007)   studied   some  wild   silk  moth  diversity   and   reported   AUacus   atlas   from   North   East  part  of  India.  Very  litle  is  known  about  the  ecology  and  biology  of  the  Atlas  moth,  AUacus  atlas.  The  adults  are  nocturnal   and   have   been   recorded   during   the   wet  season   (from   January   to   March)   (Dodd,   1935).   As   per  the  criteria  laid  out  by  Braby  and  Wilson,  (2006)  (As  per  this  criteria,  B1ab  (i,ii,iii)  +  2ab   (i,ii,iii)]  based  on:  extent  of   occurrence   <5000km2,   area   of   occupancy  <500km2,  known   to  exist  at   <5  loca;on   and   inferred   decline)   the  genus   AUacus   is   ranked   as   ‘Endangered’   in   Northern  Territory.  

According   to   Palkar   (2008)   AUacus  atlas   is   commonly  seen   during   monsoon   season   in   Konkan   region   of  Maharashtra   and   recorded   Embelia   acuLpetalum  (Family:  Myrsinaceae),  a  common   plant   in   Konkan  as  a  new  food  plant  of  A.  atlas.  Jugale  et  al.,  (2010)  recorded  A.  atlas   as  a  major   insect   pest  of  Xylocarpus  granatum  Koen.  which  is  a  Cri;cally  Endangered  mangrove  species  of  Maharashtra.  

Seri-­‐biodiversity   deals   with   the   variability   among  sericigenous  or   silk  yielding  moths  and  their  host  plants  (Srivastava  and  Thangavelu,  2005).  List  of  87  species  of  

host   plants   have   been   proposed   for   A.   atlas.  Shubhalaxmi  and  Chaturvedi   (2004)  have   listed  19  host  plants   and   83   species  by  Peigler   (1989).   In   this   study,  the  authors  tested  the  suitability  of  Terminalia  catappa  leaves   since   this   is   one   of   the   commonly   available  species  in  Kolhapur,  Maharashtra.  

Materials  and  MethodsDuring  surveys  in  Shahuwadi  Taluka  of  Kohapur  District  (at   A/P   Ambarde,   Tal.   Shahuwadi,   Dist.   Kolhapur)   a  ma;ng  pair  of  AUacus  atlas  was  sighted   on  the  bark  of  a   Mango   tree,   Mangifera   indica   at   the   dusk   on  14.11.2010.    With  minimum  disturbance,    the  pair  was  collected   and   placed   in   a   plas;c   container   of   2   lit.  capacity  and   observed   at   home.  Later   on   the   pair   was  transferred   to    paper  box   (2x2x2  feet)  so   as   to  provide  sufficient   space.   Female   laid   52   eggs,   of   which   some  were  in  clusters  of  7-­‐9  and  few  were  singly  laid  on  inner  surface  of  box.  The  eggs  were  harvested  on  second  day  and  washed  with  mild   soap  water   to  clean  and   quickly  dipped   in   2%   formalene   to   disinfect   them.  Eggs  were  spread   over   news-­‐paper   and   placed   in   plas;c   tray  (1x1x1   feet)   for   further   observa;ons.  First   and   second  instar   larvae  were  reared   in   plas;c   tray  with   fresh   and  succulent   leaves  and   subsequent   late   age   instars  were  reared   in   cartoon   box   fed   with   matured   leaves   of   T.  catappa.  Bed  cleaning  was  done  for  every  two  days.

Results  and  DiscussionArer   incuba;on   of   8   days   first   instar   worms   were  hatched   out   on   23.11.2010   and   started   to   eat   egg  shells.  Succulent   leaves  of  T.  catappa  were  provided   to  the   larvae   with   an   interval   of   6-­‐10   hours.   Literature  survey  was  done  on  the  report  of  host  plants  of  A.  atlas.  But   no   previous   report   was   cited   on   T.   catappa   as   a  larval  food  of  A.  atlas.    Pupal  period   lasted  for  44  days.    At  the  ;me  of  pupal  stage  recorded  temperature  during  day  and  night  was  24  and  120C  respec;vely.  

Total   indoor   rearing  of   larvae  was   conducted   at   home  and   the   results   of   present   study   (Table:   1,  2   &   3)   are  compared   with   related   species   described   by  (Veenakumari  et  al.,  1992)  and  Jugale  et  al.,  (2010)  who  studied   on   AUacus   mcmulleni   and   AUacus   atlas  respec;vely.

Page 18: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 18

Page 19: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 19

Descrip3on  of  immature  stages  (Plate  1)Egg  (Fig.  1)Length   2.7   mm,  width   2.5   mm   (n=10).   The   oval   egg,  slightly   flatened   dorsoventrally   were   dull   whi;sh   in  colour.   Freshly   laid   eggs   were   orange-­‐brown   with  adhesive   fluid.   Recorded   incuba;on   dura;on   was   8  days.First  instar  (Fig.  2)Head   1.5   (±  0.04)  mm   in   length,  faint   green   in   colour  and   body   length  11  mm  (±   0.78)   and  first   instar   lasted  for  3  days.Second  instar  (Fig.  3)Immediately  arer  moult   larvae  fed  on  moulted   skin   as  do  all   the  other   instars.  Head  2.4  mm  (±  0.09),  green   in  colour.  Second  instar  lasted  for  about  4  days  and   length  of  larvae  was  26  mm  (±  0.67).Third  instar  (Fig.  4)Head   3.6   mm   (±   0.06)   in   length.   Matured   larvae  measured  43  mm  (±  0.84)  in  length.    Third  instar   lasted  for  8  days.Fourth  instar  (Fig.  5)Head   4.1   mm   (±   0.03)   in   length.   Matured   larvae  atended  length  of  80  mm  (±  0.63).    Fourth  instar  lasted  for  9  days.Fi\h  instar  (Fig.  6)Head   6.0   mm   (±   0.32)   in   length.   Matured   larvae  measured   90   mm   (±1.70)   in   length.   Firh   instar   lasted  for  about  14  days.  Pupa  (Fig.  7  &  9)Length   38   mm,   width   16   mm   (n=10),   deep   brown   in  color  and  weighed  about  3.928  gm  (n=10).Cocoon  (Fig.  10  &  11)It  was  coarse,  grey-­‐brown  in  color.  Cocoons  were  found  individually  webbed  on  to  leaf  surfaces.  In  few  instances  two   cocoons   found   together.   No   peduncle   was  observed.  Mean   length   of   cocoon   was   64   mm   (n=10)  and   its   mean   width   was   25   mm   (n=10).   The   mean  weight  of  empty  cocoon  was  0.494  gm  (n=10).Male  adult  (Fig.  12)Male  wing  expanse  was  190  mm.  As  far   as  longevity   is  concerned  adult  male  lived  for  5  days  (n=3).  Female  adult  (Fig.  13)Recorded  female  wing  expanse  was  219  mm.  It  lived  for  about  15  days  (n=2).  According   to  Mani  (1982)  AUacus  atlas   is   the   largest   living   insect   and   atains   a   wing  expanse   of   270  mm   in   the  female.  Whereas   according  to   Arora   and   Gupta   (1979)   Saturnids   are   known   as  Emperor  moths  or   non-­‐mulberry  silkmoths.  The  largest  moth   in   Asia   is   a   Saturnid,   the   Atlas   moth,   with   a  wingspan  of  290  mm.  

FecundityMa;ng  lasted  for  nearly  5  hours  (n=2),  then  the  female  laid   approximately   134   eggs   which   were   in   cluster   of  

13-­‐22  and   few  of  them  were  singly  laid.  The  eggs  were  kept  for  further  study  with  the  author.  

In   the   present   study   Terminalia   catappa   (Family:  Combretaceae)  has  been   reported  as  a  new   larval   food  plant   of  A.  atlas.  The   results   of   the   present   study  are  consistent   with   observa;ons   of   Veenakumari   et   al.,  (1992)  except  number  of  instars  and  pupal  dura;on  and  it   might   be   due   to   clima;c   condi;ons   during   present  study.  They  reported  six  instars  in  A.  mcmulleni  whereas  in   the   present   study  five   instars   were   observed   in   A.  atlas.

Acknowledgement:Author   express   deep   sense   of  gra;tude   to   Dr.   R.   S.   Peigler,  Professor   of   Biology,   Department   of   Biology,   University   of  Incarnate   Word,   Texas,   USA   for   his   constant   source   of  inspira;on   throughout   the   present   study.   Authors   shall   fall  short  in  their  du;es,  if  fail  to  acknowledge  the  kind  assistance  given   by   SRA’s   wife   Sou.   Savita   Aland   during   whole   indoor  rearing  of  A.  atlas.

ReferencesArora,  G.S.  &  I.J.  Gupta  (1979).   Taxonomic  studies  of  some  of  the  Indian  non-­‐mulberry  silk  moths  (Lepidoptera:Saturniidae).  Memoirs  of  Zoological  Survey  of  India  16:  1-­‐63.

Braby,   M.   &   C.   Wilson   (2006).   Threatened   species   of   the  Northern   Territory:   Atlas   moth,   AUacus   wardi.   Threatened  species   informa;on   sheet,   Northern   Territory   Government,  Department  of  Natural  Resources,  Environment  and  The  Arts.  

Chen,   X.M.   &   Y.   Feng   (2009).   An   IntroducLon   on   Insect  Resources.  Beijing:  Science  Press.

Dodd,   W.D.   (1935).  Meanderings  of   a  naturalist.   The   North  Queensland  Register.

Jugale,   S.B.,   G.P.   Bhawane   &   L.J.   Bhosale,   (2010).     Major  insect   pests   of   Xylocarpus   granatum   Koen.   A   Cri;cally  Endangered  mangrove  species  of  Maharashtra.  The  Bioscan  1:  257-­‐268.

Jurriaanse,   J.   H.   &   J.   Lindemans   (1920).   Indo-­‐Australische  Atacus-­‐vormen.  Tijds.  Ent.,  63:  87-­‐95  pl.  11-­‐13.

Lemaire,   C.   &   J.   Minet   (1998).   The   Bombycoidea   and   their  relaLves.   In  N.   P.   Kristensen   (ed.).   Lepidoptera,    Moths   and  Buterflies.   Vol.   1:   Evolu;on,   Systema;cs  and   Biogeography.  Walter  de  Gruyter,  Inc.  Hawthome.

Li,  M.L.  (2005).  Insect  Resources.  Beijing:  China  Forestry  Press.

Mani,   M.S.   (1982).   General   Entomology   (Third   and   Revised  Edi;on).   Oxford   &   IBH   publishing   Co.   Pvt.   Ltd.,   New   Delhi.  912pp.

Michener,   C.D.   (1952).   The   Saturniidae   (Lepidoptera)  of   the  Western   Hemisphere:   Morphology,   Phylogeny   and  Classifica;on.  BulleLn   of  American  Natural   History   Museum,  98:  335-­‐502.

Page 20: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 20

Nassig,  W.A.,  R.  E.   J.  Lempe  &  S.  Kger  (1996).  The  Saturniidae  of  Sumatra  (Lepidoptera).  Heterocera  Sumatrana,  10:  3-­‐10.

Navarro,   A.F.   (1911).   Some   local   insects   of   economic  importance.  The  Philippine  Agricultural  ScienLst  1:  32-­‐35.

Palkar,   S.B.   (2008).   A   new   record   of   host   plant   Embelia  acuLpetalum   of     Atlas   moth,   AUacus   atlas   Linnaeus   from  Konkan.   Journal   of   Bombay   Natural   History  Society,   105  (3):  357.

Peigler,   R.S.   (1989).  A   revision   of   the   Indo-­‐Australian   genus  AUacus.    Lepidoptera  Research  Founda;on.,  Inc.  Beverly  Hills,  California,  xi+167pp.

Sahu,  A.K.  &  B.  B.  Bindroo  (2007).  Wild  silk  moth  biodiversity  in   the   North   Eastern  region   of   India:   Need  for   conserva;on.  Indian  Silk,  46:  16-­‐19

Shubhalaxmi,  V.  &  N.  Chaturvedi  (2004).  Larval  food  plants  of  Emperor   moths   and   Hawkmoths   of   Sanjay   Gandhi   Na;onal  Park,   Borivli,   Mumbai   (Lepidoptera:   Saturniidae   and  Sphingidae).   Journal   of   Bombay   Natural   History   Society,   101  (1):  106-­‐120.

Srivastava,  P.   K.  &  K.  Thangavelu  (2005).  Sericulture   and  seri-­‐biodiversity.    Associated  Publishing  Company,  New  Delhi.

Veenakumar,   K.,   P.   Mohanraj   &   R.S.   Peigler   (1992).   Life  history  of  AUacus  mcmulleni   (Saturniidae)  from  the  Andaman  Islands,   India.   Journal   of   Research   on   the   Lepidoptera,   31  (3-­‐4):  169-­‐179.

Yan,   S.C.   (2001).   Resources   Entomology,   Shengyang:  Northeast  Forestry  University  Press.

Stages/Parameters

Larval instars (lengths)Larval instars (lengths)Larval instars (lengths)Larval instars (lengths)Larval instars (lengths)Larval instars (lengths) Cocoon (L x W)

Stages/Parameters I II III IV V VI

Cocoon (L x W)

nLength

±

1011

(0.78)

1026

(0.67)

1043

(0.84)

1080

(0.63)

1090

(1.70)

------

1064 x 25

(3.97 x 2.60)*n

Length±

312

(0.12)

418

(0.06)

423

(0.05)

630

(0.05)

740

(0.18)

860

(0.73)

374 x 39

0.6 x 0.5**n

Length±

------

------

------

------

------

--91

(0.2)

58 x 24(0.3 x 0.2)

* Attacus mcmulleni (Veenakumari et al., 1992), ** Attacus atlas (Jugale et al., 2010)

Table 1. Mean dimensions (in mm) of the various stages of A. atlas reared in captivity in Kolhapur, Maharashtra, India

Table 2. Mean lengths (mm) of the head capsules of A. atlas reared in captivity in Kolhapur, Maharashtra, India

Stages/Parameters

Larval instarsLarval instarsLarval instarsLarval instarsLarval instarsLarval instarsStages/Parameters I II III IV V VI

NLength

±

101.5

(0.04)

102.4

(0.09)

103.6

(0.06)

104.1

(0.03)

106.0

(0.32)

------

*nLength

±

111.4

(0.04)

061.9

(0.08)

092.5

(0.09)

103.5

(0.09)

114.9

(0.23)

------

* Attacus mcmulleni

Table 3. Observed duration (in days) of the various stages of A. atlas reared in captivity in Kolhapur, Maharashtra, India

Genera/Species

Egg/larval stagesEgg/larval stagesEgg/larval stagesEgg/larval stagesEgg/larval stagesEgg/larval stagesEgg/larval stages Pupa AdultAdultGenera/Species Egg I II III IV V VI Pupa Male Female

Attacus atlas 08 03 04 08 09 14 -- 44 05 15Attacus

mcmulleni -- 3.3 5.0 6.0 6.5 8.6 15.8 25.8 -- --

Page 21: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 21

Odonates  of  North  Orissa  University  Campus  and  adjoining  areas,  Orissa

Sunit  Kr.  Das1,  S.  D.  Rout  and  H.K.  SahuP.G.  Department  of  Wildlife  and  Conserva;on  Biology,  North  Orissa  University,  Sri  Ramchandra  Vihar,  Takatpur,    Baripada,  Orissa,  757003,  India

Email:  [email protected]

Odonates  occupy  a  vital  posi;on   in  ecosystem  and  they  are   also   an   important   and   widespread   component   of  freshwater   ecosystems,   being   top   predators   (Corbet,  1962).   According   to   Silsby   (2001),   eight   superfamilies,  29   families   and   some  58   subfamilies  of   dragonflies   for  approximately   600   genera   and   6000   named   species  have   so   far   been   described   all   over   the   world.   Fraser  (1933-­‐36)  dealt  in  detail  with  the  odonate  fauna  of  India  including   some   species   from   Orissa.     Prasad   and  Varshney   (1995)   gave   a   checklist   of   499   species   and  subspecies  of   Indian  odonates   lis;ng  three  sub-­‐  orders,  17   families,  139  genera.  As   recorded  earlier   16   species  of   odonates   were   reported   from   Similipal   Biosphere  Reserve   (Sethy   and   Siddiqi,   2007)   and   recently   92  species  reported  from  this  area  (Nair,  2011).    The  study  area   is   semi   urban   and   located   near   to   the   Similipal  Biosphere  Reserve   (SBR)  of  Orissa  and  urban   areas  are  highly  modified   and   complex   landscapes,  within  which  green   or   open   areas   are   seen   as   valuable   for   human  well   being  as  well   as  wildlife   (Picket  et   al.,  2001).  The  most   imminent  threat  to  odonata  species  persistence  is  the   loss   of   suitable   habitat   and   breeding   ground.  Diversity  and  area  of  habitat  will  con;nue  to  decline  as  human   popula;on   increase   and   landscape   change   for  agricultural   prac;ces   and   developmental   ac;vi;es.  Therefore,   this   study   was   designed   to   get   genuine  informa;on   about   the   odonata   diversity   of   this  par;cular   area  with   rela;on   to   their   occurrence  inside  the  survey  area.

Study  areaThe  study  area  includes  North  Orissa  university  (N.O.U)  campus   and   its   adjoining   areas   that   lies   between  21º55’01.1”-­‐21º55’59.2”N   and   86º45’07.53”-­‐   86º  46’36.2”,which  is  a  semi  urban  area  located  5  km.  South  from  the  district   headquarters,  Baripada  in   the   district  of   Mayurbhanj,   Orissa.   The   university   campus  encompasses  110  acre  areas  of  land  with  varied  habitat  such   as   grasslands   scatered   with   small   patches   of  shrubs   and   the   surrounding   areas   covered   by  agricultural   fields,   barren   lands,   gardens,   open   areas,  home   gardens,   orchards,   natural   and   ar;ficial   water  bodies.  The   eastern   side  of   the   campus   atached   with  an  ar;ficial  water   reservoir   known  as  Ranibandh,  which  is   the   largest   fresh   water   body   exist   inside   the   study  area  with  historical  significance.

MethodologyThe   informa;on   on   Odonates   were   collected   from  September   2008   to   August   2009   in   all   three   seasons,  viz.   summer   (March   to   June),   monsoons   (July   to  October)   and   winter   (November   to   February)   for   a  period   of  one  year.  Direct   searching  method  was  used,  which   include   visual   encounter   surveys   (Heyer   et   al.,  1994)   to   know   about   the   odonates.   Mostly   we   used  digital   camera   to   take   photographs   for   the  iden;fica;on,  but   species  were  also  randomly  collected  using  net   from   different   loca;ons.  Collected   odonates  were   iden;fied   with   the   help   of   Subramanian   (2009).  Odonates  were  categorized   into   four  groups  depending  upon   their   occurrence   during   the   study   period.  Accordingly  species   observed   75-­‐100%   of   survey   days  were   categorized   as   very   common   (VC),   50-­‐75%   as  common   (CO),   25-­‐50%   as   occasional   (OC)   and   below  25%  as  rare  (RA).

Result  and  discussionThis   study   records   distribu;on   of   29   species   of  odonates   from   NOU   and   its   adjoining   areas   with   23  genera   and   6   families.   A   detailed   systema;c   list   of  odonates   is   presented   in   Table.1.   Of   these   odonates  family  Libellulidae   (18)   is  well   represented   followed  by  Coenagrionidae  (6),  Gomphidae  (2),  Calopterygidae   (1),  Les;dae   (1)   and   Aeshnidae   (1).  On   the  basis  of   direct  observa;ons,   out   of   29   species   12   are   considered   as  very   common,   10   common,   6   occasional,   and   1   rare  species   inside   the   study   area.   Among   the   collected  Libelluids,  Pantala    flavescens  (Fabricius)  and  Orthetrum  sabina   sabina   (Drury)   were   more   abundant   during  monsoon   season.   In   case   of   Zygopterans   Ischnura  aurora   (Brauer)   was   more   abundant   than   the   others  inside  the  study  area  during  all  seasons.  The  family  and  species   level   classifica;on   follows   Subramanian,  2009.  During   winter   Diplacodes   trivialis   (Rambur)  was   found  to  be  the  most  abundant  species.  The  prey  of  the  adults  consists  mostly  of  the  harmful  insects  of  crops,  orchards  and   forests   and   thus   has   a   regulatory   impact   on   the  agro-­‐forestry.     Developmental   ac;vi;es   l ike  construc;on  of  building,  road,  and  stone  crushers  in  the  peripheral  areas  have  directly  impact  on  the  popula;on  of   the   odonates   as   the   habitat   and   food   is   being  destroyed   by   such   ac;vi;es.   Public   par;cipa;on   and  awareness   is   required   to   conserve   these   odonates  within  their  habitats.

Page 22: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 22

AcknowledgementWe   want   to   acknowledge   Dr.   K.A.   Subramanian,  Zoological   Survey   of   India   for   his   valuable   sugges;ons  and   help   in   species   iden;fica;on.  The   first   author   also  like   to   thanks   Mr.   Kamal   Azad,   Wildlife   Biologist,  Aaranyak   (N.G.O.)   and   other   classmates   of   the  Department   of   Wildlife   and   Conserva;on   Biology   and  Zoology   Department,   for   their   helps   during   field   data  collec;on  and  manuscript  prepara;on.

ReferencesFraser,  F.C.   (1933).  The  Fauna  of  BriLsh-­‐India  including  Ceylon  and  Burma,   Odonata.  Vol.   I.   Taylor   and  Francis  Ltd.,   London;  436  pp.

Fraser,  F.C.  (1934).  The  Fauna  of  BriLsh-­‐India  including    Ceylon  and  Burma,   Odonata.   Vol.   II.   Taylor   and  Francis  Ltd.,London;  442  pp.

Fraser,  F.C.   (1936).  The  fauna  of  BriLsh-­‐India  including    Ceylon  and  Burma,  Odonata.  Vol.   III.  Taylor   and  Francis  Ltd.,   London;  488  pp.

Heyer,   W.R.   ,   Donnelly,   M.A.,   McDiarmid,   R.W.,   Hayek,   L.-­‐A.C.,   and   Foster,   M.S.,   eds.,   (1994).   Measuring   and  monitoring   biological   diversity_Standard   methods   for  amphibians:  Washington,  D.C.,   Smithsonian  Ins;tu;on   Press;  364  pp.

Nair,   M.V.   (2011).   Dragonflies   and   Damselflies  of  Orissa  and  Eastern  India,  Wildlife   Organisa;on,   Forest  and  Environment  Department,  Government  of  Orissa;  254pp.

Picke`,   S.   T.   A.,  Cadenasso,  M.   L.,  Grove,   J.M.,   Nilon,   C.   H.,  Pouyat,   R.   V.,   Zipperer,   and   W.C.(2001).   Urban   ecological  systems:   linking   terrestrial   ecological,   physical,   and  socioeconomic   components   of   metropolitan   areas.   Animal  Rev.    Ecology    Syst;  32:127–  57.

Prasad,   M.   and   Varshney   R.K.   (1995).   A   checklist   of   the  Odonata   of   India   including   Data   on   larval   studies.   Oriental  Insects  29:  385-­‐428.

Sethy,   P.G.S   and   Siddiqi,     S.   Z.   (2007).   Observa;on   on  Odonates  in   Similipal  Biosphere   Reserve,   Mayurbhanj.   ZOOS`  PRINT  Journal  22(11):2893-­‐2894.

Silsby,   J.   (2001).   Dragonflies   of   the   world.   Natural   History  Museum  in  associa;on  with  CSIRO  Publishing,  UK  and  Europe;200pp

Subramanian,   K.   A.   (2009).   India-­‐A   Lifescape,   Dragonflies  of  India-­‐A   Field   Guide,   Vigyan   Prasar,   India   Offset   Press,   New  Delhi;  180  pp.

Subramanian,  K.  A.  (2009).  A  checklist  of  Odonata  (Insecta)  of  India,   Zoological   Survey   of   India,   Western   Regional   Sta;on,  Pune,  Maharastra,  India.  36pp.

Watson,  J.  A.  L.,  Arthington,  A.  H.  &  Conrick,  D.  L.(1982).  Effect  of  sewage  effluent  on  dragonflies    (Odonata)  of  Bulimba  Creek,  Brisbane.  Aust.  J.  Mar.  Freshwat.  Res.,33,  517-­‐28.

!

Vestalis    gracilis               Lestes    elatus

Page 23: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 23

S. No.

Common English Name Family / Scientific Name Occurrence

I Darners Aeshnidae1 Blue-tailed Green Darner Anax guttatus (Burmeister, 1839) OCII Clubtails Gomphidae2 Common Clubtail Ictinogomphus rapax Rambur,1842 OC3 Common Hooktail Paragomphus lineatus (Selys,1850) OCIII Skimmers Libellulidae4 Trumpet Tail Acisoma panorpoides Rambur,1842 CO5 Ditch Jewel Brachythemis contaminata (Fabr.,1793) VC6 Granite Ghost Bradinopyga geminata (Rambur,1842) CO7 Rudy Marsh Skimmer Crocothemis servilia (Drury,1770) VC8 Black-tipped Ground Skimmer Diplacodes nebulosa (Fabricius, 1793) CO9 Ground Skimmer Diplacodes trivialis (Rambur,1842) VC10 Fulvous Forest Skimmer Neurothemis fulvia (Drury,1773) CO11 Pied Paddy Skimmer Neurothemis tullia (Drury,1773) OC12 Crimson Tailed Marsh Hawk Orthetrum pruinosum (Rambur,1842) VC13 Green Marsh Hawk Orthetrum sabina (Drury,1770) VC14 Wandering Glider Pantala flavescens (Fabr.,1798) VC15 Yellow-Tailed Ashy Skimmer Potamarcha congener (Rambur,1842) VC16 Rufous Marsh Glider Rhodothemis rufa (Rambur,1842) CO17 Common Picture Wing Rhyothemis variegate Linn.,1763 CO18 Coral-Tailed Cloud Wing Tholymis tillarga (Fabr.,1798) OC19 Red Marsh Trotter Tramea basilaris Kirby,1889 VC20 Black Stream Glider Trithemis festiva (Rambur,1842) CO21 Long-legged Marsh Glider Trithemis pallidinervis (Kirby, 1889) VCIV Glories Calopterygidae22 Clear-Winged Forest Glory Vestalis gracilis (Rambur, 1842) RAV Marsh Darts Coenagrionidae23 Pigmy Dartlet Agriocnemis pygmaea (Rambur, 1842) VC24 Coromandel Marsh Dart Ceriagrion coromandelianum (Fabricius, 1798) VC25 Rusty Marsh Dart Ceriagrion olivaceum Laidlaw, 1914 CO26 Golden Dartlet Ischnura aurora (Brauer,1865) VC27 Senegal Golden Dartlet Ischnura senegalensis (Ramb.,1842) CO28 Blue Grass Dartlet Pseudagrion microcephalum (Rambur,1842) COVI Spreadwings Lestidae29 Emerald Spread wing Lestes elatus Hagen in Selys,1862 OC

VC-Very Common, CO- Common, OC- Occasional, RA- Rare

Table.1: Checklist of Odonates of North Orissa University Campus and it’s adjoining areas, Orissa.

!!

Paragomphus  lineatus Acisoma  panorpoides

Page 24: Bugs R All 18 December 2011

Bugs R A! No 18 December 2011 ! 24

Newsletter of the Invertebrate Conservation and Information Network of South Asia (ICINSA) and Invertebrate Special Interest Group (ISIG) of Conservation Breeding Specialist Group, South Asia. ISIG

coordinated by Dr. B.A. Daniel, Scientist, Zoo Outreach Organisation

Editor: B.A. DanielEditorial Advisor: Sally Walker & Sanjay Molur

BUGS `R' ALL is published by ZOO and CBSG South Asia as a service to invertebrate conservation community. This issue is published with the financial support of Zoological Society of London.

For communication contact:The Editor, ZOO/CBSG, S. Asia office

P. Box. 1683, Peelamedu, Coimbatore, 641 004, TN, India. Ph: +91 422 2561 087; Fax: 2563 269; Email: [email protected]

Na;onal  Level  Hands-­‐on  Training  Workshop  on  Principles  and  Prac;ces  of  Animal  Taxonomy  with  Special  Reference  to  Insects

A  one  week   Na;onal   level   hands-­‐on  training  workshop  on  principles  and  prac;ces  of  animal   taxonomy  with  special   reference   to  Insects’   is  being  organized  by  Zoological  Survey  of   India,  Western  Ghat  Regional  Centre,  Calicut,  Kerala.    The  one   week  residen;al  workshop  is  intended  to  educate  and  popularize   animal  taxonomy  –   the  science   of  discovering,  naming  and  classifying  animals.  To  demonstrate   and   communicate   the   underlying   concepts   in   taxonomy,   the   workshop   will   focus   on   standard   techniques   and  procedures  prac;ced  in  the   science  of  Entomology.    The  subject   area   specialists  of  repute   will  deliver  presenta;ons/lectures  and  also  impart  hands-­‐on   training  on  collec;on,  preserva;on,   cura;on  and  iden;fica;on  techniques,  with  regard  to  significant   insect  groups   like   Lepidoptera   (buterflies  &  moths),   Odonata   (dragon  flies  &   damselflies),   Mantodea   (Praying   man;ds),   Hymenoptera  (ants,  bees  and  wasps),  Coleoptera   (beetles),  Diptera  (flies),  Orthoptera  (Grass-­‐hoppers)  and  Aqua;c  insects  (including  Hemiptera).  A  one-­‐  day  field  visit  will  be  organized  to  Vanaparvam  Biodiversity  Conserva;on  Park,  Kakkavayal,  Calicut,  to  get  acquainted  with  the  procedures  and  techniques  related  to  inventorying  insects.  Modern  trends  in  insect  taxonomy  like  molecular  systema;cs  will  also  be  dealt  with.  The  medium  of  instruc;ons  will  be  English.

The  workshop  aims:  To  introduce   the   principles,  prac;ces  and  scope   of  animal   taxonomy;   to  Impart  prac;cal/hands-­‐on  training   in  standard  taxonomic  procedures;  to  develop  basic  skills  in  Iden;fying  the  Insect  fauna

Target  Groups:  Post  graduates  and  young  researchers  in  the  field  of  Zoology,  Wildlife  Biology  and  Life  Sciences.

The  workshop  will   be  conducted  at   Zoological  Survey  of  India  (ZSI),  Western  Ghat  Regional  Centre   (WGRC),  Calicut-­‐6,  Kerala,   from  27th  February  –  March  3rd,  2012.

Eligibility  Criteria*:  1.  Age:  Applicants  should  be  below  35  years  as  on  1.1.   2012;   2.  Educa;onal  Qualifica;ons  and  Experience:  Post  Graduates  in  Zoology,  Wildlife  Biology  and  Life  Sciences.     (At   least  one   year  research  experience   desirable.    *Ph.   D  holders  are   not  encouraged  to  apply.)

A   total  of  25  par;cipants  will   be   selected  on  all-­‐India  basis,  according   to  the   above   criteria.   Selected  par;cipants  will  be   asked  to  submit  copies  of  their  Cer;ficates.    The  par;cipants  will  be  provided  a  second  class  to  and  fro  fare   by  train,  from  the  place  of  their  residence  in  India  to  the  workshop  venue,  on  producing  valid  travel  documents.  Free  dormitory  accommoda;on  (separate  for  men  and  women)  will  be  provided  to  all  par;cipants.

RegistraLon/Course  Fee:  Nil

Applica;on   form   that   is   to   be   filled   and   submited   can   be   downloaded   from   the   link   provided   (htp://zsi.gov.in/right_menu/29.11.11/ZSI/Index.html).  The  duly  filled  applica\on  form   should  reach  the  Course  coordinator  on  or  before  10th  January   2012,  by  email  only.    (In  case  of  any  query,  par;cipants  may  please  contact  the  Course  coordinator).

List  of  selected  par;cipants  names  of  selected  par;cipants  will  be  listed  at  this  website  by  25th  January  2012.

Contact  The  Course  Coordinator,  Na;onal  Workshop  on  Animal  Taxonomy,Zoological  Survey  of  India,  Western  Ghat  Regional  Centre,  P.O.  Eranhipalam,  Calicut-­‐673006,  Kerala,  India,Ph.  0495-­‐2770101  Ext.  211;  Fax:  0495-­‐  2771929.    Email:  [email protected]