» Geos Z{ | 8 g Volume 44 . 1990 Number 1 Pa ol ISSN 0024-0966 JOURNAL of the LEPIDOPTERISTS’ SOCIETY Published quarterly by THE LEPIDOPTERISTS’ SOCIETY Publié par LA SOCIETE DES LEPIDOPTERISTES Herausgegeben von DER GESELLSCHAFT DER LEPIDOPTEROLOGEN Publicado por LA SOCIEDAD DE LOS LEPIDOPTERISTAS pee oar, Pad nS ate Pow i the NIA “~ He Ibe .s JUN 2 5 1990 LIBRARIES , Se cm 5 June 1990 THE LEPIDOPTERISTS’ SOCIEFY EXECUTIVE COUNCIL JACQUELINE Y. MILLER, President NIELS P. KRISTENSEN, Vice JULIAN P. DONAHUE, Immediate Past President President DONALD J. LAFONTAINE, Vice RICHARD HOLLAND, Vice President President WILLIAM D. WINTER, Secretary JAMES P. TUTTLE, Treasurer Members at large: Jo BREWER JOHN W. BROWN RICHARD A. ARNOLD DALE W. JENKINS MOGENS C. NIELSEN SUSAN S. BORKIN JOHN E. RAWLINS FLOYD W. PRESTON Davip L. WAGNER EDITORIAL BOARD PAUL A. OPLER (Chairman), FREDERICK W. STEHR (Member at large) Boyce A. DRUMMOND (Journal), WILLIAM E. MILLER (Memoirs), JUNE PRESTON (News) The object of the Lepidopterists’ Society, which was formed in May 1947 and for- mally constituted in December 1950, is “to promote the science of lepidopterology in all its branches, ... . to issue a periodical and other publications on Lepidoptera, to facilitate the exchange of specimens and ideas by both the professional worker and the amateur in the field; to secure cooperation in all measures” directed towards these aims. Membership in the Society is open to all persons interested in the study of Lepi- doptera. All members receive the Journal and the News of the Lepidopterists’ Society. Institutions may subscribe to the Journal but may not become members. Prospective members should send to the Treasurer full dues for the current year, together with their full name, address, and special lepidopterological interests. In alternate years a list of members of the Society is issued, with addresses and special interests. There are four numbers in each volume of the Journal, scheduled for February, May, August and November, and six numbers of the News each year. Active members—annual dues $25.00 Student members—annual dues $15.00 Sustaining members—annual dues $35.00 Life members—single sum $500.00 Institutional subscriptions—annual $40.00 Send remittances, payable to The Lepidopterists’ Society, to: James P. Tuttle, Treasurer, 3838 Fernleigh Ave., Troy, Michigan 48083-5715, U.S.A.; and address changes to: Julian P. Donahue, Natural History Museum, 900 Exposition Blvd., Los Angeles, California 90007-4057 U.S.A. For information about the Society, contact: William D. Winter, Sec- retary, 257 Common St., Dedham, Massachusetts 02026-4020, U.S.A. For back issues of the Journal and News, write the Publications Coordinator at the address below about availability and prices. Prices of The Lepidopterists’ Society com- memorative volume 1945-1973 are $12.00 ($8.00 to members and subscribers); of A catalogue/checklist of the butterflies of America north of Mexico, clothbound, $19.00 ($12.00 to members and subscribers), paperbound, $10.50 ($7.00 to members and sub- scribers). Order from the Publications Coordinator, Ronald Leuschner, 1900 John St., Manhattan Beach, California 90266-2608, U.S.A. Make remittance payable to “The Lep- idopterists’ Society.” Journal of the Lepidopterists’ Society (ISSN 0024-0966) is published quarterly for $40.00 (institutional subscription) and $25.00 (active member rate) by the Lepidopterists’ Society, % Los Angeles County Museum of Natural History, 900 Exposition Blvd., Los Angeles, California 90007-4057. Second-class postage paid at Los Angeles, California and additional mailing offices. POSTMASTER: Send address changes to the Lepidopterists’ Society, % Natural History Museum, 900 Exposition Blvd., Los Angeles, California 90007- 4057. Cover illustration: Female ceanothus moth, Hyalophora euryalis (Boisduval), resting on a branch of immature apricots shortly after emerging from her cocoon. Submitted by John Cody, 2704 Woodrow Court, Hays, Kansas 67601. JouRNAL OF Tue LepiporpreristTs’ SOCIETY Volume 44 1990 Number 1 Journal of the Lepidopterists’ Society 44(1), 1990, 1-10 PRESIDENTIAL ADDRESS, 1989: WHY CAN’T LEPIDOPTERISTS BE MORE LIKE BOTANISTS?! JULIAN P. DONAHUE Natural History Museum of Los Angeles County, _ 900 Exposition Boulevard, Los Angeles, California 90007-4057 Additional key words: _ identification manuals, faunal inventory, biodiversity, National Lepidoptera Agenda. When members of The Lepidopterists’ Society elected me to be their President in 1988 I was both honored and flattered. And honor is the appropriate term: the Society’s Secretary, Treasurer, and Editors do most of the work and provide continuity to our ongoing operations, while the President has only three principal functions—all of which occur within a four-day period at the end of a year of doing not much of any significance. One function is to chair a meeting of the Executive Council. That’s done. The second is to pass on the symbols of office to the next President. That’s coming up. The third function is to present a Presidential Address. That’s right now. And it’s the toughest part of the job, because the subject of the address should be one of general interest to the members of the Society, rather than my research, cur- atorial, and public service activities in which I am intimately involved on a daily basis—and about any of which I could speak for hours with few or no notes. The task is made easier, however, by my being able to say what I think without having to prove it, and by not having to subject my thoughts to the peer-review filter. The importance of habitat preservation, for the sake of our natural environment, and the importance of collecting now, for the sake of advancing our knowledge, are two subjects very important to me, but * Based on a draft composed in the snug comfort of a van camped at 8400 feet in New Mexico’s Sacramento Mountains two days prior to the Society’s 40th Annual Meeting in Albuquerque, July 1989. A family emergency necessitated the author's premature departure from the meeting, and the address was never delivered. The author suggests that any errors in logic or lucidity be attributed to a temporarily oxygen-starved brain rather than to any permanent organic disorder 2 JOURNAL OF THE LEPIDOPTERISTS SOCIETY I chose not to address them further since several of my presidential predecessors have already done so quite adequately. I considered talking about the fact that human overpopulation is the compelling and ultimate environmental issue, from which virtually all others flow—but I realized that I would only be telling you something you already know, particularly since our eminent fellow lepidopterist, Paul Ehrlich, is one of the most outspoken and eloquent proponents of this view. On my way to this meeting I spent several days exploring the cultural and natural riches of this magnificent state of New Mexico. Besides learning that Deming is the home of “clean water and fast ducks,” in the course of some very fruitful botanizing I realized that the state flower, Yucca elata, is clearly one of the most spectactular and striking ~ plants in the American Southwest. Ever since my college days in Michigan I’ve been fascinated by plant identification, not only as a direct adjunct to the study of Lepidoptera and the food they eat, but also as a tool for understanding and describing habitat differences and, frankly, just for the fun of learning the name of another organism I’ve met in my travels. Now, no matter where I go, I am able to recognize a few old friends, while encountering a lot of new plants I’ve never seen before. I still remember my surprise when I discovered that my midwestern botanizing had left me totally un- prepared for a woody composite, which I encountered in abundance soon after moving to the Southwest. My old friends, Gray's Manual of Botany and the Spring Flora of Wisconsin, were useless in my new environment, as I found myself having to build an entirely new botanical reference library to help me cope with all the surprises that awaited me. And I was not disap- pointed—plant books by the score abounded: handbooks on trees and shrubs of southern California; trees, shrubs, and wildflowers of the Sierra Nevada; cacti of California; wildflowers of the California desert; keys to the flowers and shrubs of the desert; a manual of southern California plants; a manual of plants for the entire state of California—my shelves groaned, and sagged even further as my travels and botanical interests took me farther afield into adjacent states and Mexico. But the point is that I have been able to find a book to identify virtually any plant nearly everywhere my travels have taken me—and yet I live in a state with at least 3000 species of moths and nary a list of what those species are, much less where and when they occur within the state and how to identify them. Had I stumbled upon the Great American Anomaly? Or some Griev- ous Inequity? I finally had a subject worthy of Presidential exploration. Was this abundance of plant manuals peculiar to California? A stroll VOLUME 44, NUMBER 1 3 through the Museum’s botany library quickly convinced me that this was indeed not the case. A sample of some North American titles I found: A Flora of Tropical Florida (Long & Lahela 1976); Manual of the Plants of Colorado (Harrington 1954); Arizona Flora (Kearney & Peebles 1951—treating 3370 species!); Flora of Alaska (Anderson 1959); Wild Flowers of the United States (Rickett, various dates; multi-volume regional work heavily illustrated with color photos); Illustrated Flora of the Pacific States (Abrams 1940-1960); Trees, Shrubs, and Woody Vines of the Southwest (Small 1972); Gray's Manual of Botany (Fer- nald 1950—treating 5523 species of the northeastern U.S.); Manual of the Vascular Plants of Texas (Correll & Johnston 1970—treating nearly 5000 species!); A Utah Flora (Welsh et al. 1987— treating 2572 species); Intermountain Flora (Cronquist et al., various dates); Aquatic and Wetland Plants of Southwestern United States (Correll & Correll 1975); and Flora of Baja California (Wiggins 1980—treating 2705 species). Furthermore, I found numerous more specialized manuals and mono- graphs, including Moss Flora of North America (Grout 1972); Agaves of Continental North America (Gentry 1982); Atlas of North American Astragalus (Barneby 1964), and Manual of the Grasses of the United States (Hitchcock 1951). Wow! How does this abundance of botanical manuals compare with iden- tification tools available for Lepidoptera? Although I shall be concen- trating on comparisons within the North American flora and fauna, with which I am most familiar, similar comparisons most likely can be made everywhere else on earth with the possible exception of western Europe. Butterfly people have it easy. Many state and regional manuals have been published, with many still in print (e.g., New York, Michigan, Missouri, Georgia, Oregon, Indiana, Rocky Mountains), not to mention several readily available continent-wide identification manuals by Scott, Howe, Ehrlich and Ehrlich and, for the skippers, by Evans, Freeman, and Lindsey, Bell, and Williams, PLUS a comprehensive bibliography of all state and regional butterfly lists ever published for North America (Field et al. 1974). Most regional manuals have been written as a labor of love by non-professionals (that is to say, by people who aren’t paid to be lepidopterists). Identifying a moth in North America is another story altogether, and I think that our scarcity of identification references is the fundamental reason we don’t have more moth collectors. To test this view I examined the moth handbooks in my office and found deficiencies in virtually all of them. Here are some examples from the North American fauna for continent-wide works: 4 JOURNAL OF THE LEPIDOPTERISTS’ SOCIETY 1. Noctuidae, one of the largest moth families, with at least one widely collected genus (Catocala): a. Hampson (1903-1913), Catalogue of the Lepidoptera Phalaenae in the British Museum, Vols. 4-18: treated all world species known at the time, including all North American species; now out of date, expensive, and not fully illustrated. b. Seitz (1923), Macrolepidoptera of the World, Vol. 7: never completed, expensive, out of date. c. Barnes & McDunnough (1918), Illustrations of the North American species of the genus Catocala: out of print, hard to find, expensive, out of date. d. Lafontaine (1987), Euxoa, Moths of America North of Mexico, Fascicle 27.2: treats only a single (but large) genus, expensive. 2. Phycitine Pyralidae: Heinrich (1956), American Moths of the Subfamily Phycitinae: excellent genitalic figures for virtually all species in the Western Hemisphere, but not a single photograph of an adult moth! 3. Acrolophus: monographed by Hasbrouck (1964), male genitalia well figured, but lacks figures of female genitalia and has no photos of adults. 4. Pterophoridae: monographed by Barnes & Lindsey (1921): surprisingly useful but now outdated and hard to find. Olethreutine Tortricidae: monographed by Heinrich (1923, 1926): genitalia well illustrated but not a single figure of wing pattern, now hard to find and somewhat outdated. Ol Although The Moths of America North of Mexico series is slowly filling the void in identification manuals for the North American fauna, and doing it in a superb fashion, it is beset with at least three lingering problems: it is unquestionably slow (begun 18 years ago), it is expensive, and it tends to be biased toward eastern collections. With very few exceptions, the regional identification manuals for North America are similarly limited: 1. Forbes (1954), Lepidoptera of New York and Neighboring States, Part III, is the only comprehensive state faunal identification manual that contains keys, but it suffers from a lack of photographs of adult moths. 2. Kimball (1965), Lepidoptera of Florida, is an illustrated and annotated checklist, not an identification manual. 3. Covell (1984), Field Guide to the Moths of Eastern North America, is the best regional moth manual we have, but it does not cover the entire fauna. Every single one of the references cited above is diminished by one or more limitations of being out of date, out of print, incomplete, inadequately illustrated, or too expensive. Before a comprehensive identification manual can be produced, you first need to have a list of species present in the area to be covered. Several such lists have been published, including: 1. Hodges (1983), Check List of the Lepidoptera of America North of Mexico [North American faunal list]. 2. Moore (1955), Annotated List of the Moths of Michigan [excluded the “microlepi- doptera ’]. 3. Kimball (1964), Lepidoptera of Florida. 4. Forbes (various years), Lepidoptera of New York and Neighboring States: a com- prehensive work that embraced all species known to occur in the state, thus serving as a state list. VOLUME 44, NUMBER 1 5 In addition, there are a number of lists that inventory, in varying detail, a portion of the moth fauna occurring in a given area, such as those by Tietz (1936, The Noctuidae of Pennsylvania); Selman and Barton (1971, The Sphingidae of Northeast Arkansas); Metzler (1980, Saturniidae of Ohio); and Godfrey, Cashatt, and Glenn’s fascinating 1987 annotated checklist of the 30,000 “‘microlepidoptera”’ that Murray O. Glenn, a farmer, collected as a hobby in a small section of Illinois. The search through my library did produce, however, a very few works that approach my concept of the ideal identification manual in that they are current, complete, contain keys and/or diagnoses, and are well illustrated. However, they all have one drawback: they are gov- ernment or organizational publications unobtainable through normal bookselling channels—you have to scrounge the publisher’s name and address, and enter into correspondence to ascertain availability and price. Three examples are McGuffin’s series, Guide to the Geometridae of Canada (Entomological Society of Canada); Pogue and Lavigne’s The Tortricinae of Wyoming (1981, University of Wyoming Agricul- tural Experiment Station); and the unquestioned cream of the crop, to the best of my knowledge the best regional moth identification guide ever published in North America, William E. Miller's Guide to the Olethreutine Moths of Midland North America (1987, U.S.D.A. Forest Service, Agric. Handbook 660). This last publication could easily serve as an idealized model for the scores of similar manuals we need—the use of color photos is the only improvement it could have used. I am amazed, or perhaps stunned is a more appropriate word, that neither of the two states with biological or insect survey programs, each having published major works on their insect faunas (Illinois Biological Survey and California Insect Survey), has published a single work on its moth fauna, not even at the family level. Texas, with one of the richest Lepidoptera faunas in North America, has not even produced a guide to its butterflies, not to mention its moths! This appalling disparity—the abundance of plant identification man- uals and the paucity of moth identification manuals—led me to inves- tigate the cause of this discrepancy, with the hope of finding some clue that we lepidopterists can use to our advantage. At first, I thought that the botanists had it easier because they don’t have to deal with the overwhelming numbers of species we moth people face. Wrong! Published estimates for the number of known, named species of Lepidoptera in the world range from 113,000 to 150,000 or more (with some estimates for the actual total world fauna, both named and unnamed, of ten times or more this number)—for the sake of this discussion I shall use an estimate of 140,000 known species of Lepi- doptera in the world. By comparison, there are some 225,000 species 6 JOURNAL OF THE LEPIDOPTERISTS SOCIETY of flowering plants (dicots and monocots) in the world, or 61% more species of plants than there are of Lepidoptera. In North America north of Mexico, there are more than 11,000 named species of Lepidoptera, compared with twice that number of species of plants (22,200). Considering the fact that most Lepidoptera feed, as larvae, on only one species of plant, or on a few closely related species of plant, and further taking into account that most plants probably serve as host to more than one species of lepidopteran, I think it is reasonable to expect that, on average, there is at least one species of lepidopteran for every species of flowering plant (disregarding, for the moment, the species whose larvae feed on lower plants, detritus, etc.). This translates to a potential North American Lepidoptera fauna of over 22,000, a reason- able figure when one considers the large numbers of new species being discovered in poorly studied families (e.g., Gelechiidae, Scythrididae). Using these same assumptions for the world Lepidoptera fauna, we can reasonably expect the potential world fauna to be about a quarter of a million species, or about twice the number of species we have suc- ceeded in describing in the last 200 years! No, the botanists have not been so successful because their job has been easier. The real reason that botanists know their business so well is because of their subject matter: plants are necessary for converting solar energy to a form that can be utilized by animals, and are thus fundamentally essential for human existence and survival. Homo sapi- ens has a vested and direct interest in plants, not just for food, but for fiber, shelter, medicine, ornamentation, etc. Human survival, popula- tion expansion, and colonization all depend on our having an intimate knowledge of botany. So of course we’re going to know far more about plants than about any other component of our natural environment, including a lot of apparently non-essential incidental botanical knowledge of no imme- diate practical advantage acquired during the course of applied re- search. What, exactly, do I think is so special about botanists? The two qualities of botany and botanists that I admire most, and which I perceive to be deficient or lacking among lepidopterists, are (1) the availability of an identification manual for virtually any group of plants virtually anywhere on earth, and (2) the ability to agree on the im- portance of floristic studies, and then to cooperate in providing the funds and staff to accomplish the goals. Why are botanists so much more successful in understanding their discipline than we lepidopterists? And here I am addressing not the practical, applied aspects of botany, but basic knowledge of natural history, taxonomy, and distribution. VOLUME 44, NUMBER 1 7 First, there are simply more of them than us! The Lepidopterists’ Society has just 1500 members in 50 nations, and is the only organization in North America devoted entirely to Lepidoptera. In contrast, just look at some of the botanical organizations in the United States: Botanical Society of America, American Society of Plant Taxonomists, American Fern Society [there are only 345 species of ferns in North America north of Mexico!], Phycological Society of America (algae), Mycological So- ciety of America (fungi, 1600 members), North American Mycological Association, American Orchid Society, the Bromeliad Society, and doubtless others, not to mention native plant societies, garden clubs, and special interest groups devoted to limited subjects such as bonsai, roses, insectivorous plants, etc. Secondly, they are publishing fools! Every one of the organizations I just listed has its own publication. Furthermore, numerous other pub- lications emanate from free-standing institutions, such as the Missouri Botanical Garden (Annals), New York Botanical Garden (a slew of titles, including Brittonia, Botanical Review, Economic Botany, Mem- oirs, Flora Neotropica, etc.), Field Museum of Natural History (Field- iana, with ongoing series on Ferns & Fern Allies of Guatemala, Flora of Peru, Flora Costaricensis, etc.), and Rancho Santa Ana Botanical Garden (Aliso), to mention just a few. The study of plants has certain obvious advantages over the study of Lepidoptera, and I think this is another reason why botanists far out- number us. Specifically, plants are a lot easier to study—although they are often seasonal (as are leps), they stand still for prolonged scrutiny and manipulation, and can be found in exactly the same spot the next day; they are (usually) diurnal, conspicuous, attractive and esthetically pleasing, and easily observable; many wild species can be adapted for domestic cultivation. Although butterflies (and some moths) share some of these characteristics, the fact that they don’t allow a close approach and manipulative examination (without stalking and netting them) makes them unworthy of study by the casual naturalist. And moths—well, you can forget about the general public having an intellectual interest in any moth smaller than a bat, and usually not even then. (Interestingly, the sedentary nature of caterpillars, on the other hand, lends them to be observed in a more leisurely, plant-like, fashion.) The availability of plant identification manuals seems to have a cat- alytic effect on a person’s interest in botany—being able to readily learn the name of one plant leads to a desire to learn the names of additional plants. In fact, the late Harry Clench, co-founder of our Society, ob- served a similar positive reinforcement phenomenon when he attributed two spurts in the growth of our domestic membership to the ‘‘Klots factor” and the “Ehrlich factor,” otherwise unexplained surges in mem- 8 JOURNAL OF THE LEPIDOPTERISTS SOCIETY bership a year after the publication of two popular butterfly field guides— collectors had found a way to identify their captures, at the same time discovering the existence of an organization of similarly inclined nat- uralists. There thus seems to be a number of fundamental differences between the study of plants and the study of Lepidoptera, so that the two can not be compared fairly. However, I have left until last one final dif- ference that I think we can do something about. After discussing the matter with entomologists and botanists, I have concluded that entomologists in general, and lepidopterists in particular, tend to be aloof, egotistical, self-centered, selfish, secretive, individu- alistic, and unwilling or unable to agree on a cooperative national/ international agenda. The entomological community appears to have a low general regard for faunistic studies and basic taxonomic research, so that grant proposals in these disciplines receive low marks when competing against sexier or more high-tech fields of entomological inquiry. In the United States I am aware of only one major grant- funded moth faunal survey (in Costa Rica, possibly funded because of the superior reputation of the investigator rather than the significance of the survey itself) and not a single similarly funded taxonomic study. (It is encouraging that there are more and more locally funded, locally focused studies, such as inventories of the butterfly fauna of natural areas, but I am concerned here with the negative national attitude toward such studies.) Botanists, in contrast, seem to have no difficulty agreeing on the importance of floral surveys and taxonomic research both at home and abroad, and in providing the manpower and finances to accomplish the task. Because botanists agree on the necessity of this type of research, this view is reflected in positive anonymous peer reviews of grant proposals, which are then funded. Botanists can justify their existence because they study this planet’s energy source. We entomologists, and particularly lepidopterists, can justify our existence because we study the primary herbivores, those animals at the bottom of the food chain that benefit man and the ecosystem by providing food for birds, fish, herptiles, and even man, and by recycling nutrients and enriching the soil, by pollinating plants, and so forth, in addition to some of them just being lovely to look at; comparatively few species actually compete with man for food or fiber. The naked truth of the matter is that we are still very ignorant about one of the best known groups of insects! Not only have we named only about half the species in existence, but we don’t know what most of them eat, much less their role in the grand scheme of things. Even more frightening is the fact that they are surely becoming extinct as VOLUME 44, NUMBER 1 9 rapidly as any other group of organisms as their habitats and hostplants are being destroyed. It is sad and unfortunate that entomologists as a group are perceived by the general public as harmless at best, insane at worst; while butterfly collectors are frivolous airheads and moth collectors have most likely lost all touch with reality. Burdened as we are with these misperceptions of our worth, it is difficult for us or the object of our inquiry to be taken seriously. The fact that we like our work is complicated by the fact that the animals we study are actually beautiful; it is even more com- plicated if we work on small species, because the general public equates size with significance. I have now completed my examination of “Why can’t lepidopterists be more like botanists?” There may still be some hope for us! The Moths of America North of Mexico project and the Atlas of Neotropical Lepidoptera project are positive steps in the direction I feel we should be following, but both suffer from a shortage of funds and a severe lack of specialists to participate. (The shortage of taxonomists is a general one, not limited to lepidopterists; the ultimate reason is slashed funding for jobs in systematics as a result of a perceived relative lack of signif- icance of this discipline.) Pending legislation for a national biological inventory would be a major step forward if it receives adequate funding. The most important basis for our Society, and the one that makes us so special, is that we are organized to serve as the meeting ground for amateurs and professionals, for the mutual benefit of both and for the advancement of lepidopterological knowledge. The “professionals,” un- fortunately, are a vanishing race, torn between the conflicting goals of producing the taxonomic and faunistic monographs and manuals we need so badly on the one hand, and providing guidance and assistance to the amateur community on the other hand. We have seen examples of outstanding work by our amateur members, and I know that many more members are capable of similarly fine contributions if only they could receive a little encouragement and help. Without that help they are left to their own devices, leading to results that may be less than satisfactory. Short of a miraculous but unlikely increase in funding for taxonomic research, if we are to make any significant progress in understanding the taxonomy and distribution of our Lepidoptera fauna it is absolutely essential that we adopt a plan, a National Lepidoptera Agenda, that will make the most efficient possible use of our biggest resource, our members. The formalization of this Agenda will require a lot of thought by all our members and particularly by the Executive Council, our elected representatives. Some suggestions to consider in the implemen- tation of the Agenda include: 10 JOURNAL OF THE LEPIDOPTERISTS’ SOCIETY identification and techniques workshops at national meetings traveling workshops and seminars to regional meetings use of the Publication Fund to publish identification and techniques manuals a techniques video (an advanced techniques video could be filmed in a lab or at one of the workshops) a newsletter of Lepidoptera taxonomy, a periodical directory of who is working on what group, and who has material available for study a directory of taxonomic “holes”: a guide to taxa in need of specialists and/or more specimens a similar directory of regional/habitat “holes”: a guide to areas with poorly known faunas participate in national discussions on biological surveys and standardization of databases; contract/cooperate with The Nature Conservancy's Natural Diversity Data Base program disseminate information to members on curatorial standards and database management systems publish bibliographies of taxonomic revisions (perhaps providing copies of original works on microfilm, computer disc, video disc, or xerographic copies) establish a “specialist network” to make critical identifications for faunistic publications compile a directory of “visiting specialists” willing to provide on-site taxonomic assis- tance to those paying expenses publish a directory of research collections willing to accept and curate voucher spec- imens from faunal surveys publish a leaflet on how to ship specimens safely publish a handbook or video on rearing techniques promote preservation of larvae and parasitoids by publishing a leaflet on proper tech- niques reinstate/resurrect the larval voucher repository program commission/solicit and publish a compendium of hostplant data for North American “microlepidoptera” (to complement data in Tietz); consider funding or seek grant for development of a database for this purpose consider establishing a network of semi-autonomous regional branches or affiliates (including existing regional groups), to foster communication, standardization, and unification of purpose Proposing suggestions is easy; implementing them is the tough part. Although the Society has an abundance of very talented and capable members, fewer than 10 of them—all volunteers—are responsible for our day-to-day operation. With a little leadership and guidance from the Executive Council, let us hope that more of our members will become personally involved in helping to make the National Lepidop- tera Agenda become a reality. Perhaps lepidopterists can be more like botanists. Received for publication 10 February 1990; accepted 10 February 1990. Journal of the Lepidopterists’ Society 44(1), 1990, 11-27 AMBLYSCIRTES: PROBLEMS WITH SPECIES, SPECIES GROUPS, THE LIMITS OF THE GENUS, AND GENUS GROUPS BEYOND—A LOOK AT WHAT IS WRONG WITH THE SKIPPER CLASSIFICATION OF EVANS (HESPERIIDAE) JOHN M. BuRNS Department of Entomology, NHB 169, National Museum of Natural History, Smithsonian Institution, Washington, D.C. 20560 ABSTRACT. In detecting and correcting errors at all these taxonomic levels, I lean heavily on genitalia. Two similar, closely related, ostensibly allopatric differentiates treated by some as species and by others as subspecies are indeed separate species that are barely sympatric: Amblyscirtes celia Skinner and A. belli Freeman. Most closely related to this pair is the mainly Mexican complex A. tolteca Scudder/prenda Evans, rather different in facies and currently misplaced in a different species group of Amblyscirtes. Another species that looks very like an Amblyscirtes—simius Edwards—assuredly is not! Although, like simius, A. alternata (Grote & Robinson) has a short, blunt antennal apiculus that is “wrong for Amblyscirtes, alternata clearly belongs. Placed by Evans (1955) in his N or Lerodea group of American hesperiine genera and said to be allied to Atrytonopsis, Lerodea, and Oligoria, Amblyscirtes actually has close ties with various neotropical genera in Evans's J or Apaustus group: Remella, Mnasicles, and Callimormus! By extrapolation, much of Evans's taxonomic system just below the level of the subfamily may be invalid. Ironically, a Guatemalan skipper that Bell (1959) described in the J group genus Moeris (with which Evans erroneously synonymized Remella) is really an Amblyscirtes: A. patriciae, new combination. This species clusters with A. folia Godman, A. immaculatus Freeman, and A. raphaeli Freeman, which come from southern Mexico. Additional key words: genitalia (male and female), Callimormus, Mnasicles, Re- mella, Moeris. Arbitrary change in the rank of a species can sow confusion. Merely by listing Wallengrenia egeremet (Scudder) as a variety of W. otho (Smith), Edwards (1877) launched a systematic muddle lasting nearly a century and culminating in a published load of bioillogicalities (details in Burns 1985). Unless we ignore arbitrary action from the outset (and lepidopterists seldom do), it will sooner or later require critical response. With just 7 specimens of Amblyscirtes belli Freeman from northern Texas and 11 of A. celia Skinner from southern Texas, Evans (1955) made them subspecies. Freeman (1941) had described A. belli, in terms of facies, from 109 specimens from Dallas County in northeastern Texas which he compared with 37 specimens of A. celia, the most similar species, noting four facies differences (not altogether valid). Skinner (1895) had described A. celia, also in terms of facies, from an unstated number of specimens from Blanco, Comal, and Nueces counties in southcentral Texas. Close similarity plus apparent or actual allopatry do not, of them- selves, warrant reduction to subspecific rank. Careful analysis of various 12 JOURNAL OF THE LEPIDOPTERISTS SOCIETY skippers has revealed monophyletic groups of closely related but largely or entirely allopatric species—see, for example, the superspecies in Erynnis and Atrytonopsis (Burns 1964, 1983). Evans’s (1955) action has been divisive: supported most notably by dos Passos (1964), Harris (1972), and Scott (1986), with echoes to the present (Watson & Hyatt 1988); and opposed by Freeman (1973), MacNeill (1975), and Miller and Brown (1981, 1983), as well as by others, with some waffling—Opler and Krizek (1984:259) treated A. celia and A. belli separately but allowed that “Celia’s Roadside Skipper is some- times considered to be the same species as Bell’s Roadside Skipper.” Facies differences between A. celia and A. belli (unevenly dealt with in many of the works cited above) are subtle and variable but pervasive enough to suggest different species in the context of the genus Am- blyscirtes. Still, rank is arguable. New information is needed. Freeman (1978, and again in Irwin & Downey 1973), in defending the rank of species, cited an instance of sympatry between A. celia and A. belli near the type-locality of the latter in Dallas County, Texas. Because I found celia common 265 km to the southsouthwest at Austin, Travis County, Texas, in 1966 and 1967, contact seemed plausible. But because Freeman mistook a few of my 56 Austin specimens of celia for belli at that time, I was dubious—until 1989, when he graciously collected, mounted, and forwarded 8 6 3 2 of celia and 6 4 1 2 of belli that were flying together at Garland, Dallas County, Texas, during August and September, and when I discovered, among Amblyscirtes in the National Museum of Natural History (USNM), a misplaced worn female of belli taken at Austin in May 1980. Like many other pairs of differentiates, these two skippers overlap narrowly in eastcentral Texas. Without giving specifics, Freeman (1973:54) added, “There are slight differences [between celia and belli] in the genitalia, however genitalic determinations in the genus Amblyscirtes are practically impossible with most species due to the fact that the basic pattern is very similar.” The qualification is disturbing. Early in the same review of Amblys- cirtes, Freeman (1973:41) put it this way: “... there is a remarkable similarity in the male genitalia of all of the species. Often worn spec- imens are very difficult to identify even after an examination of the genitalia due to this great consistency in basic form.” Long before, having reprinted the Skinner and Williams (1928) figures of the male genitalia of Amblyscirtes from the United States and Canada, Lindsey et al. (1931:126) observed, “The genitalia of all of these species are remarkably uniform in structure.” I am skeptical, then, when Freeman (1973:45, 48, 50, 51, 54) repeatedly asserts—for five pairs of species whose rank has been (or, in one case, may be) questioned—‘“‘there are VOLUME 44, NUMBER 1 13 differences in the genitalia,” especially since he never says what any of those differences are. Considering the genitalic conservatism, intrageneric taxa showing distinct genitalic differences will almost certainly be species rather than subspecies. However, I must stress that in Amblyscirtes, as elsewhere, genitalia vary individually so that, even in a local population of a single species, no two tails are exactly alike; and the detection of “distinct genitalic differences” entails much dissection and comparison. In com- paring genitalia of different species in this and similar taxonomic papers, the reader should keep in mind that many of the differences between figures are individual instead of interspecific and that the angle of illustration (and hence of observation) is crucial. A Tail of Two Species At certain angles, the male genitalia of the taxa in question clearly differ. From above, the middle of the distal end of the uncus looks convex in A. celia (Fig. 1) but concave in A. belli (Fig. 4). In all species of Amblyscirtes the simple, roughly rectangular valva ends in a prom- inent, pointed, dorsally directed terminal process that is slightly set off from the body of the valva and slightly medial to it (Figs. 3, 6, 13, 20, plus figures in many other sources, especially Godman & Salvin 1879- 1901, Skinner & Williams 1923, Lindsey et al. 1931, and Evans 1955). A posterior look at the distal end of the valva shows—at the level of the base of the dorsally directed terminal process—a major, modestly dentate, medial expansion in A. celia (Fig. 2) which, by contrast, is relatively low and smooth in A. belli (Fig. 5). The distal location of these genitalic characters often makes them accessible in situ. Using both wet and dry dissection, I have examined them critically in 43 males of A. celia from Dallas, Travis, Bastrop, Comal, Bexar, Kendall, Kerr, Harris, Hidalgo, and Cameron counties, Texas, plus Ciudad Victoria and Ciudad Mante, Tamaulipas, Mexico; and in 40 males of A. belli from Dallas and Tarrant counties, Texas, Garfield County, Oklahoma, Carroll, Faulkner, and Pulaski counties, Arkansas, Labette County, Kansas, Barry and St. Clair counties, Mis- souri, Fulton and McCracken counties, Kentucky, Madison County, Tennessee, Fulton County, Georgia, and Pickens County, South Car- olina. The genitalic differences hold over the range of each species, even where the two are sympatric or geographically close (nearly half the celia genitalia examined come from Austin, Texas, and nearly a fifth of the celia, and more than half the belli, from around Dallas, Texas). Though highly variable, the female genitalia also differ in a distal 14 JOURNAL OF THE LEPIDOPTERISTS SOCIETY I, Behe Fics. 1-3. Male genitalia of Amblyscirtes celia from Austin, Travis Co., Texas, 15 May 1967, J. M. Burns (genitalic dissection no. X-2528) (USNM). 1, Tegumen, uncus, and gnathos in dorsal view; 2, Distal ends of valvae and aedeagus in posterior view; 3, Complete genitalia (minus juxta and right valva) in left lateral view. character (mere removal of terminal ventral abdominal scales will re- veal it). The sclerotized posterior margin of the lamella postvaginalis (just ventral to the ovipositor lobes) is, in A. celia, widely but decidedly V-shaped, with the point of the V anterior, midventral, and more or less rounded into a small midventral notch (Fig. 7). In A. belli this sclerotized posterior margin varies from shallowly U-shaped (Fig. 9) to shallowly W-shaped to virtually straight. I have compared this feature again and again in 33 females of A. celia from Dallas, Travis, Bexar, Harris, San Patricio, Hidalgo, and Cameron counties,Texas; and in 25 7 Ze Fics. 4-6. Male genitalia of Amblyscirtes belli trom the vicinity of Irving, Dallas Co., Texas, 28 July 1984 (X-2529) (USNM). 4, Tegumen, uncus, and gnathos in dorsal view; 5, Distal ends of valvae and aedeagus in posterior view; 6, Complete genitalia (minus juxta and right valva) in left lateral view. VOLUME 44, NUMBER 1 15 females of A. belli from Travis and Dallas counties, Texas, Pulaski County, Arkansas, Labette County, Kansas, St. Clair and Cape Gi- rardeau counties, Missouri, Fulton County, Georgia, and Pickens Coun- ty, South Carolina. In both species the sclerotized ductus bursae—which angles to the left (Figs. 7, 9)—is not a plain tube: approximately the anterior third bears a wide, deep groove in the left side which, posteriorly, becomes shallow as it twists to the dorsal side and disappears (Figs. 7-10). Details of expression vary greatly. Because most of this variation is individual, no consistent interspecific differences emerge. Disruption of Species Groups Both A. celia and A. belli display a striking asymmetry of the ae- deagus. (This feature, too, is distal and thus visible without dissection whenever the superlengthy shaft projects from the end of the abdomen.) Along the left side of the aedeagus, just before its end, a large, thin, triangular plate with a long base curves outward and upward forming a conspicuous pointed titillator (Figs. 2, 3, 5, 6). No one has ever mentioned it. Skinner and Williams (1923:144, fig. 24) and Lindsey et al. (1931:pl. 31, fig. 24), in illustrating the right valva and the distal end of the aedeagus of what they called A. celia, either got the wrong species or missed the titillator, which, given its size and the amount of detail in their figures, seems unlikely. On the other hand, Evans (1955:pl. 82, fig. N.2.18), without comment, caught the titillator in his caricature of distal portions of A. celia genitalia. Nothing like it appears in any of his 22 other genitalic caricatures of Amblyscirtes species—not even the one for A. tolteca Scudder (Evans 1955:pl. 82, fig. N.2.11). Ranging through most of Mexico, A. tolteca apparently gives way in the west and northwest (especially in Sonora plus southern Arizona) to what Evans (1955) briefly described (in terms of size and facies) as subspecies prenda, which Freeman (1973) raised to the rank of species without adequate justification. Though lacking enough material to resolve the status of tolteca vis-a-vis prenda, I can definitely say that both have a titillator like that of A. celia and A. belli and, furthermore, that no other known species of Amblyscirtes does. Using a few characters of facies, Evans (1955) divided the sizeable and superficially variable genus Amblyscirtes into four species groups which Freeman (1973), in his review of the genus, endorsed. Freeman also followed Evans’s sequence of species—as have most workers, with little or no deviation, from dos Passos (1964) on. This arrangement puts A. celia plus A. belli far from A. tolteca/prenda in a different species group. The distinctive titillator unites them in a close-knit assemblage (above 16 JOURNAL OF THE LEPIDOPTERISTS SOCIETY Fics. 7, 8. Female genitalia of Amblyscirtes celia from Austin, Travis Co., Texas, 25 May 1967, J. M. Burns (X-2452) (USNM). 7, Sterigma, bursa copulatrix, and part of the ductus seminalis in ventral view; 8, Sterigma and bursa copulatrix in right lateral view. VOLUME 44, NUMBER 1 Me Fics. 9,10. Female genitalia of Amblyscirtes belli from Vickery, Dallas Co., Texas, 30 August 1952, H. A. Freeman (X-2692) (USNM). 9, Sterigma, bursa copulatrix, and part of the ductus seminalis in ventral view; 10, Sterigma and bursa copulatrix in right lateral view. 18 JOURNAL OF THE LEPIDOPTERISTS SOCIETY a superspecies since A. celia and A. tolteca overlap broadly in Mexico). Though all have a fundamentally similar spot-pattern on the ventral secondary, the four taxa run a gamut in average spot expression from weak in belli and rather better in celia to strong in tolteca and very strong in prenda; and tolteca/prenda stand out especially on account of a bold double spot in the cell and a sharp spot in space 1b,, on both surfaces of the primary, plus several spots on the dorsal secondary— all of which A. celia and A. belli lack. (In these species of Amblyscirtes, males express spots better than females.) In addition, primaries are more pointed in tolteca/prenda than in celia and belli. (And primaries are more pointed in males than in females.) Banishing the Imposter Originally described in Amblyscirtes, simius Edwards (1881) was moved by Barnes and McDunnough (1916) to Chaerephon Godman— which Hemming (1935) pegged as a junior homonym and renamed Yvuretta—from which Freeman (1943) moved simius back to Amblys- cirtes, where it remains (uncomfortably). (Draudt [1924] put it in Sto- myles, which has long been considered a synonym of Amblyscirtes.) Barnes and McDunnough justified removal by citing the third palpal joint and the antennal club. The third joint of the palpus is relatively short and directed forward to moderately upward in simius but long, slender, and about vertical in most species of Amblyscirtes; the antennal club looks nearly blunt with an exceedingly short and stubby apiculus in simius but conspicuously pointed with an abruptly constricted and attenuate apiculus in Amblyscirtes. Also mentioning the peculiar stig- ma, Barnes and McDunnough (1916:125) went so far as to say, “it may be necessary to erect a new genus for” simius; but conservatively, and tentatively, they placed it in Chaerephon—which is wrong (compare the figures of the male genitalia of simius with those of the other two species under Chaerephon in Skinner & Williams 1923, reprinted in Lindsey et al. 1931). Proclaiming that “Edwards was correct when he described this species in the genus Amblyscirtes,’ Freeman (1943:75) argued his opposite case using the very same characters—third palpal joint and antennal club—which he misrepresented. Freeman (1943:76) admitted that “genitalically this species is not like other members of the genus Am- blyscirtes.” Evans (1955), MacNeill (1975), Stanford (1981), and Scott (1986) reiterated that the genitalia of simius are aberrant for Amblyscirtes; and the three Americans added, on this and other (especially behavioral) grounds, that simius may belong in another genus. Having shown con- clusively that “‘genitalic characters, generally so useful in differentiating VOLUME 44, NUMBER 1 19 D7 oa Fics. 11-13. Male genitalia of Amblyscirtes vialis from Lexington, Middlesex Co., Massachusetts, 2 June 1975, J. M. Burns (X-2516) (USNM). 11, Tegumen, uncus, and gnathos in dorsal view; 12, Distal ends of valvae and aedeagus in posterior view; 13, Complete genitalia (minus juxta and right valva) in left lateral view. species, are also exceptionally valuable at the generic level in skippers”’ (Burns 1987:173), I wish, once and for all, to banish simius from Am- blyscirtes. In both sexes the genitalia of A. celia and A. belli (Figs. 1-10) are obvious variations on the theme of the type-species, A. vialis (Edwards) (Figs. 11-15). In males this singular theme boasts several salient ele- ments: a wonderfully long, narrow aedeagus (Figs. 3, 6, 18) split distally into two, more or less parallel, linearly toothed ends (Figs. 2, 3, 5, 6, 12, 13); a correspondingly long, narrow saccus (Figs. 3, 6, 18); and a tegumen with a delicate, middorsal, caudally arching prong supporting membrane over a variously oval to cordate to triangular dorsal opening (Figs. 1, 3, 4, 6, 11, 13). The male genitalia of simius (Figs. 16, 17) differ radically: the ae- deagus is relatively short and stout, without distal modification, but with a pair of simple cornuti (lacking in Amblyscirtes); the saccus, though somewhat long, is not half what it is in Amblyscirtes; and the tegumen, uncus, and gnathos are all utterly distinct, both in form and in relative proportions, from their counterparts in Amblyscirtes. As in many other hesperiine skippers, the paired distal tips of the gnathos are completely free of the overlying uncus instead of being individually joined to its underside, as they are in Amblyscirtes. Any fancied resem- blance between the valvae in lateral view is doubtless convergent. The female genitalia of simius stand apart at the grossest level: after 4 or 5 minutes of boiling in 10% KOH, they are virtually membranous throughout—even the lamella postvaginalis and the ductus bursae. These parts are always well sclerotized in Amblyscirtes (Figs. 7-10, 14, 15), even after 7 or more minutes of boiling. 20 JOURNAL OF THE LEPIDOPTERISTS SOCIETY Fics. 14, 15. Female genitalia of Amblyscirtes vialis from Jacksonville, Windham Co., Vermont, 5 June 1963, J. M. Burns, E. D. Hanson, and D. W. Hottenstein (X-2519) (USNM). 14, Sterigma, bursa copulatrix, and part of the ductus seminalis in ventral view; 15, Sterigma and bursa copulatrix in right lateral view. Where does simius go? Not in any named nearctic genus, but con- ceivably in a neotropical one. After all, a basically tropical skipper genus can produce a species that breaks the distributional mold by occurring primarily, and extensively, in North America north of Mex- VOLUME 44, NUMBER 1 21 Fics. 16, 17. Male genitalia of ? simius from Horsetooth Mountain Park, 1800 m, Larimer Co., Colorado, 14 June 1987, P. A. Opler (X-2509) (USNM). 16, Tegumen, uncus, and gnathos in dorsal view; 17, Complete genitalia (minus right valva) in left lateral view, with vesica everted to show cornuti well. ico—witness Epargyreus clarus (Cramer). To describe a new genus for simius still strikes me as premature (as it did Barnes & McDunnough in 1916). For the present I advertise its tail (Figs. 16, 17) so that others, too, may look for a possible match. Though I cannot fix its genus, better that simius float than clutter the wrong one. Sometimes It’s Okay To Be Different The sole excuse for its erroneous placement is that simius looks like an Amblyscirtes—but we know that facies can converge and appear- ances, deceive. As discussed above, not only are the entire genitalia of simius wrong for Amblyscirtes but so are such prominent cephalic appendages as the palpus and, particularly, the antenna, whose apiculus is a blunt fraction of what it ought to be. In this connection, it is instructive to point out for the first time that A. alternata (Grote & Robinson) has a similarly short, blunt apiculus! 22 JOURNAL OF THE LEPIDOPTERISTS SOCIETY BA, Fics. 18-20. Male genitalia of Amblyscirtes alternata from 5 km N Panacea, Wakulla Co., Florida, 5 April 1980, J. M. Burns (X-2457) (USNM). 18, Tegumen, uncus, and gnathos in dorsal view; 19, Distal ends of valvae and aedeagus in posterior view; 20, Complete genitalia (minus juxta and right valva) in left lateral view. Nevertheless, alternata is a true Amblyscirtes: the third joint of its palpus is long, slender, and erect; and (what is really crucial) its genitalia (Figs. 18-20) are a manifest variation on the Amblyscirtes theme (com- pare Figs. 1-6, 11-13). Note that the aedeagus carries a subterminal titillator in the form of a modest midventral keel (Figs. 19, 20). Both this keel and the much reduced apiculus are unique in the genus Am- blyscirtes. Biologic variation may sharply change the singular genitalic theme itself. In three species, A. nereus (Edwards), A. eos (Edwards), and A. nysa Edwards, the delicate, middorsal tegumen prong—one of the “salient elements’’—totally disappears. But the underlying dorsal open- ing persists, as do all other salient elements. Nature simply makes it harder to generalize. Neotropical Ties and Disruption of Genus Groups With simius out, the rest of the 30 species currently in Amblyscirtes (Freeman 1973) comprise a related lot sharing more or less similar genitalia. Still, the genus is mixed with respect to such features as facies, the length of the apiculus, the third joint of the palpus, and, most important, the stigma of the male. Not just the species groups of Am- blyscirtes but the exact limits of the genus may need to be reworked. But larger, more basic problems loom. When he arranged the genera of American hesperiines in 8 groups (lettered H to O), Evans (1955: 7-8, 383) put Amblyscirtes in the N or Lerodea group (the smallest), observing that, “The 4 genera placed in this group [Atrytonopsis, Am- blyscirtes, Lerodea, and Oligoria] appear to be more or less allied and would be out of place in any other group.”’ Actually, the nearest relatives of Amblyscirtes are far removed in Evans’s J or Apaustus group! VOLUME 44, NUMBER 1] 23 Support for this startling assertion comes from figures of male gen- italia in two classic works treating skippers at opposite ends of the neotropics (Mexico and Central America; Argentina). The critical fig- ures (Godman & Salvin 1879-1901:vol. 3, pl. 99, fig. 3, pl. 103, figs. 26, 27, 31, 33 [all reprinted in this paper as Figs. 21-25]; Hayward 1950: pl. 8, fig. 3, pl. 13, figs. 5, 11) show salient elements of the singular Amblyscirtes theme—especially those relating to the aedeagus and the saccus, but, in one case, even the delicate tegumen prong—coupled with valvae loosely reminiscent of Amblyscirtes valvae. According to Evans (1955), those figured genitalia belong to 5 species in 3 genera— Moeris remus (Fabricius), Mnasicles geta Godman, M. hicetaon God- man, Callimormus juventus Scudder, and C. alsimo (Méschler)—and those genera (all polytypic) constitute, respectively, numbers 33, 6, and 2 of his Apaustus group (which contains 53 genera in all). At this point I must sunder the Evans combination Moeris remus and restore remus to its proper genus. Without any question, the figures of the male genitalia of the type-species of Godman’s new genera Perimeles (Godman & Salvin 1879-1901:vol. 3, pl. 99, fig. 3 [Fig. 21 in this paper]) and Moeris (vol. 3, pl. 100, fig. 2 [Fig. 26 in this paper]) reflect very distinct genera, which Evans (1955:146) wrongly lumped. The genitalia of the type-species of Perimeles—remus Fabricius— suggest Amblyscirtes, while the genitalia representing Moeris do not. There has been a legitimate name change, though: Perimeles remus became Remella remus when Hemming (1939) saw that Godman’s Perimeles is a junior homonym and replaced it with Remella. Having examined a number of genitalic dissections of Remella, Mna- sicles, and Callimormus for myself, I reiterate that those small neo- tropical skippers are phylogenetically close to Amblyscirtes. To see— almost at a glance—that the male tails of Atrytonopsis, Oligoria, and Lerodea depart much farther from those of Amblyscirtes, compare relevant figures in Godman and Salvin (1879-1901), Lindsey et al. (1931), Hayward (1950), and Burns (1982, 1983). Blatant genitalic heterogeneity in both the J and the N groups of Evans probably exceeds what I have indicated. Worse yet, it may occur in other groups, invalidating much of Evans’s taxonomic system just below the level of the subfamily. I have a final irony in the fire. In the course of checking out possible neotropical relatives of Amblyscirtes, I studied the male holotype (the only known specimen) of what Bell (1959) designated Moeris patriciae (taken by Patricia Vaurie at Salama, elevation 3000 ft [915 ml], in the middle of Guatemala on 22 July 1947), including the slide Bell had made of its genitalia. From this—as well as from Bell’s (1959:figs. 9, 15) illustrations of the whole animal and its genitalia—the skipper 24 JOURNAL OF THE LEPIDOPTERISTS SOCIETY 25 Fics. 21-25. Godman’s figures of male genitalia of various neotropical relatives of Amblyscirtes; complete genitalia (minus juxta and left valva) in left lateral view. Note that, because Godman removed the left valva, his figures show the inner surface of the right valva, whereas mine of Amblyscirtes show the outer surface of the left valva. 21, Remella remus; 22, Mnasicles geta; 23, Mnasicles hicetaon; 24, Callimormus juventus; 25, Callimormus alsimo. VOLUME 44, NUMBER 1] 25 26 Fic. 26. Godman’s figure of the male genitalia of Moeris striga; complete genitalia (minus juxta and left valva) in left lateral view. Even in a limited lateral comparison, this tail differs grossly from that of Remella remus (Fig. 21): the aedeagus is short and simple but equipped with cornuti, the saccus is very short, and the distal ends of the valva are much produced. obviously belongs in Amblyscirtes as then and now conceived. Am- blyscirtes patriciae (Bell), new combination, clusters with A. folia God- man, A. immaculatus Freeman, and A. raphaeli Freeman, which come from southern Mexico. For Amblyscirtes, these species are large to extremely large in size (the length of the male primary ranges from about 15 to 20 mm). Males have a well-developed, conspicuous, linear stigma, in three sections, consisting mainly of fine, dense, short, brown, hairlike scales. The long- est (and uppermost) section begins at the origin of veins 3 and 4, runs along the lower side of the cubitus, diverges from it well before the origin of vein 2, and extends down to that vein. The second and third sections pick up below vein 2 as a pair of dashes or dots, much more nearly vertical in orientation, that extend to, or toward, vein 1. Although tripartite, this stigma looks more or less continuous to the naked eye. The apiculus of the antenna (unfortunately missing from the specimen of A. patriciae) is perceptibly longer and more delicate than it is in other Amblyscirtes. The third segment of the palpus is relatively short, rather than long and slender. A pale area (cream or tan or yellowish) tends to develop on the ventral primary in the distal half of space 1b. ACKNOWLEDGMENTS My thanks to F. H. Rindge for his generous hospitality during repeated visits to the American Museum of Natural History, New York, including access to Bell’s and Freeman’s various genitalic preparations and their Amblyscirtes types; to Rindge and C. V. Covell Jr. for lending specimens of Amblyscirtes and to H. A. Freeman, P. A. Opler, and C. N. Watson Jr. for donating them; to Adrienne Venables for 123 precise KOH dissections of male and female genitalia of Amblyscirtes, its relatives, and ? simius and to Young Sohn for superb drawings of some of them; to F. D. Godman for figuring male genitalia of skippers before it was fashionable and to Victor Krantz for reproducing a few of Godman’s figures; and to Sarah Burns for catching Amblyscirtes, recording data, reading manuscript and proof, and giving all sorts of general support. 26 JOURNAL OF THE LEPIDOPTERISTS SOCIETY LITERATURE CITED BARNES, W. & J. H. MCDUNNOUGH. 1916. Notes on North American diurnal Lepi- doptera. Contributions to the natural history of the Lepidoptera of North America. 3:51-156, pls. 4-11. Review Press, Decatur, Illinois. BELL, E. L. 1959. Descriptions of some new species of neotropical Hesperiidae (Lepi- doptera, Rhopalocera). Am. Mus. Novit. No. 1962. 16 pp. BuRNS, J. M. 1964. Evolution in skipper butterflies of the genus Erynnis. Univ. Calif. Publ. Entomol. 37:1-217. 1982. Lychnuchoides frappenda from central Mexico joins lunus and zweifeli in a lunus group of Atrytonopsis (Lepidoptera: Hesperiidae: Hesperiinae). Proc. Entomol. Soc. Wash. 84:547—567. 1983. Superspecies Atrytonopsis ovinia (A. ovinia plus A. edwardsi) and the nonadaptive nature of interspecific genitalic differences (Lepidoptera: Hesperiidae). Proc. Entomol. Soc. Wash. 85:335-358. 1985. Wallengrenia otho and W. egeremet in eastern North America (Lepi- doptera: Hesperiidae: Hesperiinae). Smithsonian Contrib. Zool. No. 423. 39 pp. 1987. The big shift: nabokovi from Atalopedes to Hesperia (Hesperiidae). J. Lepid. Soc. 41:173-186. bos Passos, C. F. 1964. A synonymic list of the Nearctic Rhopalocera. Lepid. Soc. Mem. No. l. v + 145 pp. DrauptT, M. 1924. Vol. 5. The American Rhopalocera. In Seitz, A. (ed.), The Macro- lepidoptera of the world. Alfred Kernen Verlag, Stuttgart. Epwarps, W. H. 1877. Catalogue of the diurnal Lepidoptera of America north of Mexico. Trans. Am. Entomol. Soc. 6:1-68. 1881. Descriptions of new species of diurnal Lepidoptera found within the United States. Trans. Am. Entomol. Soc. 9:1-8. EvaANs, W. H. 1955. A catalogue of the American Hesperiidae indicating the classifi- cation and nomenclature adopted in the British Museum (Natural History). Part IV. Hesperiinae and Megathyminae. British Museum, London. 499 pp., pls. 54-88. FREEMAN, H. A. 1941. A new species of Amblyscirtes from Texas (Lepidoptera, Rho- palocera, Hesperiidae). Entomol. News 52:50-51. 1943. New Hesperioidea, with notes on some others from the United States (Lepidoptera, Rhopalocera). Entomol. News 54:72-77. 1973. A review of the Amblyscirtes with the description of a new species from Mexico (Hesperiidae). J. Lepid. Soc. 27:40-57. GoDMAN, F. D. & O. SALVIN. 1879-1901. Biologia Centrali-Americana; Insecta; Lep- idoptera-Rhopalocera. Vol. 2, 782 pp.; Vol. 3, 113 pls. Harris, L., JR. 1972. Butterflies of Georgia. Univ. Oklahoma Press, Norman, Oklahoma. xxii + 326 pp. HAYWARD, K. J. 1950. Genera et species animalium argentinorum. Vol. 2. Insecta, Lepidoptera, Hesperiidae, Hesperiinae. G. Kraft Ltd., Buenos Aires. 388 pp., 26 pls. HEMMING, F. 1935. Notes on seventeen genera of Rhopalocera. Stylops 4:1-3. 1939. On five genera in the Lepidoptera Rhopalocera at present without valid names. Proc. Roy. Entomol. Soc. London, series B 8:39. IRWIN, R. R. & J. C. DowNeEy. 1973. Annotated checklist of the butterflies of Illinois. Illinois Nat. Hist. Survey, Urbana, Ill. Bio. Notes No. 81. 60 pp. Linpsey, A. W., E. L. BELL & R. C. WILLIAMS, JR. 1931. The Hesperioidea of North America. Denison Univ. Bull., J. Sci. Lab. 26:1-142. MACNEILL, C. D. 1975. Family Hesperiidae, pp. 423-578. In Howe, W. H. (ed.), The butterflies of North America. Doubleday & Co., Inc., Garden City, New York. MILLER, L. D. & F. M. BRown. 1981. A catalogue/checklist of the butterflies of America north of Mexico. Lepid. Soc. Mem. No. 2. vii + 280 pp. 1983. Hesperiidae, pp. 42-48. In Hodges, R. W. (ed.), Check list of the Lepi- doptera of America north of Mexico. E. W. Classey Ltd. and The Wedge Entomo- logical Research Foundation, London. VOLUME 44, NUMBER 1 27 Oper, P. A. & G. O. KrizEkK. 1984. Butterflies east of the Great Plains. Johns Hopkins Univ. Press, Baltimore, Maryland. 294 pp., 54 pls. Scott, J. A. 1986. The butterflies of North America. Stanford Univ. Press, Stanford, California. xiii + 583 pp., 64 pls. ; SKINNER, H. 1895. Notes on Rhopalocera, with descriptions of new species. Entomol. News 6:112-114. SKINNER, H. & R. C. WILLIAMS JR. 1923. On the male genitalia of the Hesperiidae of North America, Paper III. Trans. Am. Entomol. Soc. 49:129-153. STANFORD, R. E. 1981. Superfamily Hesperioidea Latreille, 1802 (skippers), pp. 67— 108, 117-144. In Ferris, C. D. & F. M. Brown (eds.), Butterflies of the Rocky Mountain states. Univ. Oklahoma Press, Norman, Oklahoma. WarTSsON, C. N., JR. & J. A. Hyatr. 1988. Butterflies of northeast Tennessee. J. Lepid. Soc. 42:19-31. Received for publication 30 July 1989; revised and accepted 6 January 1990. Journal of the Lepidopterists’ Society 44(1), 1990, 28-31 A NEW SPECIES OF PIRUNA FROM MEXICO (HESPERIIDAE) HUGH AVERY FREEMAN 1605 Lewis Drive, Garland, Texas 75041 ABSTRACT. Piruna kemneri is described from Oaxaca and Puebla, Mexico, the type series consisting of 18 males collected by John Kemner and one male collected by H. A. Freeman. The new species is differentiated from its most similar ally P. haferniki Freeman 1970 by morphological and genitalic characters. Holotype and genitalia of a paratype are illustrated. Additional key words: Piruna kemmneri, P. haferniki, P. brunnea, P. pirus, P. cy- closticta. During the summers of 1987-88 John Kemner collected rather ex- tensively over Mexico. Among the many interesting species of Hesper- iidae that he collected in the state of Oaxaca was an undescribed species of Piruna Evans that is described here. According to Evans’ (1955) arrangement this species belongs in Group H of the Hesperiinae. Piruna kemneri Freeman, new species (Figs. 1, 2, 8) Male upper side (Fig. 1). Primaries black, with seven variable white, hyaline spots; a round or linear spot in space 2 and, midway between this spot and base of wing, another spot in same space, which may be absent in some specimens. In space 3, a small round or linear spot situated directly under apical spot in space 6. Three, small, apical spots, in line, with the one in space 7 being minute and sometimes absent. A small, round, upper cell spot. Fringe black becoming whitish at the tips. Costal margin slightly concave. Secondaries black, unmarked. Fringe black, becoming lighter at tips, uncheckered. Male under side (Fig. 2). Primaries brown, lightly overscaled with golden scales, with space | being lighter in coloration than the rest of the wing. All spots are white, hyaline, and better defined than on upper side. Fringe dark, brownish black, slightly checkered. Secondaries brownish black, with a heavy overscaling of golden scales over the basal half of the wing and extending from anal fold to space 3. There is a heavy concentration of golden and white scales midway between the apex and base of the wing near the costa, forming an irregularly shaped blotch. The remainder of the wing brownish black. No hyaline spots present. Fringe dark brownish black, uncheckered. Body. Thorax black, heavily overscaled with brown hairs above, lighter beneath due to brown and golden hairs present. Abdomen dark brownish-black above, lighter beneath. Head black, covered with brown hairs. Palpi black above, sordid white at base below, gray at termen, dark grayish on lateral sides. Legs brown. Antennae, both shaft and club, dark brownish black above, lighter beneath, club pale beneath, yellowish. Apiculus gold. Wing measurements. Holotype. Primaries: base to apex, 10.5 mm; apex to outer angle, 7 mm; outer angle to base, 9 mm. Secondaries: base to end of vein 3, 8.5 mm; center of costa to anal angle, 7 mm. Total expanse: 22 mm. Average total expanse of paratypes: 22 mm (n = 17). Types. Holotype, male, Mexico: Oaxaca: 5 miles north of Oaxaca, Hwy. 175, ca. 1800 m elev., 21 July 1987 (leg. John Kemner) in the American Museum of Natural History, New York. There are 17 male paratypes, 16 same location and collector as holotype, collected during July and August 1987-88, at present in my collection, and one male paratype from Mexico: Tehuacan, Puebla, 14 August 1964 (leg. H. A. Freeman) in the American Museum of Natural History. VOLUME 44, NUMBER | 29 Fics. 1,2. Upper side (Fig. 1) and under side (Fig. 2) of Piruna kemneri Freeman, holotype, male, Mexico: Oaxaca, 5 miles north of the city of Oaxaca, ca. 1800 m elev., 21 July 1987 (leg. John Kemner). Fic. 3. Piruna kemneri, male genitalia of paratype (Genitalia Vial H-904), same location and collector as holotype, 11 July 1988. a) tegumen, uncus, gnathos, and associated structures in lateral view; b) right valva in lateral view of interior, upper part ampulla, lower part harpe; c) same as (a), in ventral view; d) aedeagus in lateral view. 30 JOURNAL OF THE LEPIDOPTERISTS SOCIETY Etymology. I take great pleasure in naming this new species for my good friend John Kemner who collected most of the type series. This new species is a member of the brunnea complex (Freeman 1970) of Pirwna, which contains brunnea (Scudder), cyclosticta (Dyar), pirus (Edwards), and haferniki Freeman, and is characterized by having no spots on either the upper or under side of the secondaries. All other Piruna have either spots or streaks on the upper or under side of the secondaries. The male genitalia of members of this complex have the terminal end of the harpe smooth with no indication of being serrate or having spines, which are present in most of the other species of Piruna. The members of this complex are briefly described as follows: brunnea (Scudder) 1872—Average expanse of primary 13 mm. Black. Two apical spots in spaces 6 and 8. Discal spots in spaces 2 and 8. Cell spot may or may not be present. No basal spot in space 2. Under side of secondaries chocolate brown. pirus (Edwards) 1878—Average ex- panse of primary 11 mm. Brownish-gray. Three apical spots. Discal spots in spaces 2 and 3 may or may not be present. Small cell spot usually present. No basal spot in space 2. Under side of secondaries ferruginous. cyclosticta (Dyar) 1902—Average expanse of primary 11 mm. Brownish-gray. Three apical spots. Discal spots in spaces 2 and 3 well defined. Cell spot always present. Basal spot in space 2 always present and well defined. Under side of secondaries dull brown. haferni- ki Freeman 1970—Average expanse of primary 1] mm. Blackish-brown. Three large apical spots, in line. Discal spots in spaces 2 and 3 well developed. Cell spot large. Basal spot in space 2 always present and well developed. Under side of secondaries overscaled over basal and submarginal areas purplish-gray leaving the center of the wing dark brown. The most closely related species to kemneri is haferniki, from which it can be separated by the following features. In haferniki the apical, discal, and cell spots on the primaries are much better developed than in kemneri. Perhaps the easiest way to separate the two species is to compare the under side of the secondaries. P. haferniki has the unusual purplish-gray overscaling over the basal half of the wing and extending from the anal fold along the outer margin to space 5, leaving the discal area from space | to costa a broadly triangular area darker than the remainder of the wing, which lacks overscaling. P. kemneri has a heavy overscaling of golden scales over the basal half of wing and extending from space 1 and anal fold to space 3, leaving the remainder darker, except for the large irregularly shaped, lighter blotch midway between the apex and base on the costa, produced by a heavy concentration of golden and white overscaling. The costal margin of the primaries of P. kemneri is slightly concave, in contrast to all other species of Piruna. VOLUME 44, NUMBER 1 31 The male genitalia of kemneri (Fig. 3) differ from haferniki in the following ways: the tegumen (lateral view) is broader; terminal end of divided uncus is straight and not curving laterally like haferniki (ventral view); ampulla is narrower at posterior end than in haferniki and the anterior end is broader and more upturned than in haferniki (lateral view); and the harpe is slightly narrower at the terminal end than in haferniki (lateral view). These genitalic differences are based on the examination of four kemneri paratypes. ACKNOWLEDGMENTS I thank Dr. Frederick H. Rindge of the American Museum of Natural History, New York, for the loan of Piruna specimens and for making the photographs of the holotype used in this article. LITERATURE CITED Evans, W. H. 1955. A catalogue of the American Hesperiidae indicating the classifi- cation and nomenclature adopted in the British Museum (Natural History). Part IV. Hesperiinae and Megathyminae. British Museum, London. 499 pp., pls. 54-88. FREEMAN, H. A. 1970. A new species of Piruna from Texas (Hesperiidae). J. Lepid. Soc. 24:247-249. Received for publication 3 February 1989; revised and accepted 13 October 1989. GENERAL NOTES Journal of the Lepidopterists’ Society 44(1), 1990, 32 PREDATION OF FIVE SPECIES OF NOCTUIDAE AT ULTRAVIOLET LIGHT BY THE WESTERN YELLOWJACKET (HYMENOPTERA: VESPIDAE) Additional key words: Nephelodes minians, Pseudaletia unipuncta, Heliothis zea, Trichoplusia ni, Catocala faustina. Between 23 September and 26 October 1989, I observed several western yellowjackets, Vespula pensylvanica (Saussure), preying on five species of Noctuidae at an ultraviolet light in central Colorado. Vespula pensylvanica ranges from Hawaii, east across the Rockies onto the high plains of central Colorado (Akre, R. D., A. Greene, J. F. MacDonald, P. J. Landolt & H. G. Davis. 1980, Yellowjackets of America north of Mexico, U.S. Dept. Agric. Handbook No. 552, pp. 69-71). This predation was observed in Greenwood Village, a suburban area southeast of Denver, in Arapahoe County. Wasps began arriving at the ultraviolet light about 15 min before sunrise and returned continually until later afternoon, searching for moths. The wasps patrolled even on days when the ultraviolet light was not used the previous night. Although only one wasp was observed at a time, it is likely that more than one individual was involved in the attacks. Moths attacked by Vespula pensylvanica were resting either on the white sheet behind the ultraviolet light, or on the house wall adjacent to the sheet. The wasp attacked by stinging a moth once in the abdomen. Some moths jumped and flew away, but others fell to the ground, flapping their wings. The wasp then followed the moth to the ground and stung it several more times. After the moth stopped moving, the wasp bit the moth’s wings off at the base, and ate the body. Usually (n = 5), the abdomen and most of the thorax was eaten by the wasp, leaving only the tougher parts of the thorax and head. In one case, the wasp flew off with the prey. The five species observed to be victimized by V. pensylvanica were: Nephelodes minians Guenee., Pseudaletia unipuncta (Haworth), Heliothis zea (Boddie), Trichoplusia ni (Htibner)(identified in Covell, C. V., 1984, A field guide to the moths of eastern North America, Houghton Mifflin, Boston, pls. 22, 29, 31), and Catocala faustina Strecker (identified in Holland, W. J., 1968, The moth book, Dover, Toronto, pl. 33). The successful attack on the Catocala species was surprising because C. faustina is much larger than the wasp. Other moths present but not attacked included several larger Catocala species and one unidentified, blackish Noctuidae. Two other published observations of vespid wasps preying on adult Lepidoptera were recorded by S. H. Scudder (1889, The butterflies of the eastern United States and Canada, with special reference to New England, published by the author, Cambridge, MA), who observed a Liminitis arthemis (Drury) in the clutches of a large vespid wasp that had seized its prey as it sunned on a road (p. 1612). Scudder (p. 1217) also recounted an earlier observation made in England by G. Newport (1863, Trans. Entomol. Soc. Lond. 1:228-230), who reported a successful attack by Vespa vulgaris on Pieris rapae. Although this is not the first published observation of a vespid wasp preying on adult Lepidoptera, it is the first observation of a vespid preying on moths that have been attracted to UV lights (Frank, K. D., 1988, J. Lepid. Soc. 42:63-93). (For further observations of inver- tebrate predation of Lepidoptera, see Nielsen, M. C., 1977, The Great Lakes Entomol. 10:113-118.) I thank Richard S. Peigler, Denver Museum of Natural History, for his invaluable help and advice in preparing this paper. Five voucher specimens of V. pensylvanica were deposited in the Denver Museum of Natural History. ANDREW D. WARREN, 9951 East Ida Place, Englewood, Colorado 80111. Received for publication 9 November 1989; revised and accepted 14 February 1990. VOLUME 44, NUMBER 1 33 Journal of the Lepidopterists’ Society 44(1), 1990, 33-34 LYCAENA HYLLUS (CRAMER) (LYCAENIDAE): NEW HOST AND MATING BEHAVIOR IN A DROUGHT-INDUCED POPULATION EXPLOSION Additional key words: dispersal, parasitism, Aprostocetus, Eulophidae, Polygonum natans. On 24-26 August 1988, we observed a large population of the bronze copper, Lycaena hyllus (Cramer), in a wet meadow approximately 4—5 ha at the north end of Carnelian Lake, Stearns County, Minnesota. The lake has no natural outlet and fluctuations in the lake level are due to differences between precipitation and evaporation. The area was observed again in August 1989. Weather conditions during both years were warm and sunny with daytime high temperatures of 23-26° C. In 1988 the wet meadow inhabited by L. hyllus consisted of a dense herbaceous community of Polygonum coccineum Muhl., P. natans Eat., P. persicaria L., Rumex spp., grasses, and sedges. P. coccineum grew in dense stands up to 1.5 m tall. The shorter P. natans covered areas as large as 9 x 15 m. First instar as well as older larvae and pupae of the bronze copper were found on P. natans. This is a new larval foodplant record for L. hyllus. Plants previously reported as larval hosts are Rumex crispus L., R. obtusifolius L., R. longifolius, R. patientia L., and P. coccineum (Scott, J. A., 1986, The butterflies of North America: A natural history and field guide, Stanford Univ. Press, Stanford, California, 583 pp.). Both P. coccineum and P. natans exhibited extensive feeding damage assumed to have been caused by larvae of the bronze copper. We did not observe females ovipositing on either plant but one was seen crawling about the base of P. natans plants. On 13 September 1988, 35 adult parasitoids of an undetermined species of Aprostocetus (Hymenoptera: Eulophidae) emerged from two pupae collected on P. natans. This is the first report of L. hyllus as a host of any species of Aprostocetus (M. E. Schauff, Systematic Entomology Laboratory, PSI, pers. comm.). Males and females of the bronze copper nectared on the abundant flowers of P. coccineum. Both males and females rested and basked on P. natans with open wings; the males apparently engaged in perching behavior to await females. Perching behavior is typical of species in which the distribution of foodplants throughout the normal flight area is spotty (Scott, J. A., 1975, J. Res. Lepid. 14:1—40). Males in the vicinity of P. natans behaved markedly differently from those on the taller P. coccineum. Large numbers of males, estimated between 15-25/10 m2, were observed patrolling 0.5-1.5 m above large patches of P. natans. Many fewer females were observed in these areas. Males, which did not interact outside of P. natans patches, sometimes chased each other in groups of 10 or more and often reached heights of 2-3 m. Males flew into and crawled beneath P. natans plants and several were observed to land on pupae attached to leaves, suggesting that females probably are mated soon after emergence. Courtship behavior and mated pairs were observed from 0930-1200, but were more common from 1300-1500. Males sometimes chased females, but behavior that culminated in mating was not observed. Only 10 mated pairs were encountered in this gigantic population, suggesting intense competition among males for receptive females. Males that attempted to mate landed next to a resting female and both sexes began to flutter their wings rapidly. The male moved rapidly around the female and, when behind her, placed his head and antennae beneath her wings, i.e. male nudging (Scott, J. A., 1973, J. Res. Lepid. 11:99-127; Scott, J. A., 1974, Pan Pac. Entomol. 50:9-22). The female’s abdomen remained horizontal to the leaf surface throughout the entire courtship. Attempts by the male to copulate by moving the abdomen laterally were apparently blocked by the open position and fluttering of the female’s wings (Scott, J. A. & P. A. Opler, 1975, J. Lepid. Soc. 29:63-66). Female fluttering is a rejection dance in Lycaena (Scott, J. A., 1974, J. Lepid. Soc. 28:64-72), indicating either that females were not old enough to mate or that they had previously mated. Occasionally the male closely followed the female down into 34 JOURNAL OF THE LEPIDOPTERISTS SOCIETY the vegetation. After approximately 1 min of this rejection dance by the female, the male flew. Five males in succession were rejected by one female. Males that landed near a mated pair flew off after several seconds of wing fluttering by all three. Estimates of the density of adult butterflies in the wet meadow in August 1988 ranged from 1 to 25/10 m? (1000 to 2500 adults/ha) in areas with large P. natans patches. The population explosion of L. hyllus may have resulted from the effects of the extreme drought conditions throughout central Minnesota during the spring and summer of 1988, which exposed shoreline that was colonized by P. natans and P. coccineum. These Polygonum have both terrestrial and aquatic forms (Gleason, H. A. & A. Cronquist, 1963, Manual of vascular plants of northeastern United States and adjacent Canada, D. Van Nostrand Co., Princeton, NJ, 810 pp.) enabling them to invade rapidly and dominate. We did not observe large numbers of bronze coppers in 23 previous years of normal and above normal precipitation. The presence of several female bronze coppers visiting flowers approximately 1 km from the meadow suggests that dispersal may be an important means by which this butterfly exploits temporary wetland habitats. After twelve additional months of below average precipitation, the lake level had dropped several more feet by 20 August 1989, exposing additional shoreline. Areas that had been newly exposed in 1988 were extremely dry. Plant diversity had increased at the expense of the Polygonum species. The dense stands of P. coccineum observed in 1988 were greatly reduced except for newly exposed areas of the slough and shoreline. Searching the area on 20, 21, 22, and 26 August 1989 revealed only 10 adult male L. hyllus. Explanations of the population crash may include parasitism and a reduction of suitable larval foodplants. We thank Dr. M. E. Schauff, Research Entomologist, Systematic Entomology Labo- ratory, Plant Sciences Institute, USDA, Beltsville Agricultural Research Center, Beltsville, Maryland for identification of the Aprostocetus sp. parasitoid and Dr. James A. Scott, Lakewood, Colorado, for reviewing the manuscript. DavipD B. MACLEAN, Department of Biological Sciences, Youngstown State Univer- sity, Youngstown, Ohio 44555 AND BONNIE K. MACLEAN, Department of Biology, Thiel College, Greenville, Pennsylvania 16125. Received for publication 21 November 1988; revised 18 September 1989; accepted 15 January 1990. Journal of the Lepidopterists’ Society 44(1), 1990, 34-36 SEASONAL VARIATION OF OCCURRENCE OF DEFORMED COCOONS OF THE TASAR SILK MOTHS ANTHERAEA MYLITTA (DRURY) AND ANTHERAEA PAPHIA (L.) (SATURNIIDAE) IN INDIA Additional key words: bipupate, bishellate, flimsy cocoons. The tasar silk moth, Antheraea mylitta (Drury), is trivoltine in India and is reared in the Rainy season (July-August), Autumn (September—October), and Winter (November— December). By contrast, Antheraea paphia (L.) is reared only during the Autumn season; although it multiples in nature during the Rainy and Winter seasons, its economic per- formance at these times is poor. Tasar culture is an age-old practice in Orissa and good cocoons are more highly valued in tasar commerce than deformed cocoons because of the former’s better reelability (ability to be spun onto a reel with a continuous filament for production of fine fabrics). Although the occurrence of deformed cocoons in the tasar crop is a common phenomenon, the seasonal variation of their occurrence has not been VOLUME 44, NUMBER 1 35 TABLE 1. Seasonal variation in percentage occurrence of deformed cocoons of A. mylitta' and A. paphia.! ; : J Deformed cocoons (%) Tasar species with commercial Season names of the seasonal crops Bipupate Bishellate Flimsy Total Rainy A. mylitta (Ampatia) 0.047 0.698 6.130 6.875 A. paphia (Godamodal) 0.008 0.154 0.125 0.287 Autumn A. mylitta (Daba) 0.060 1.073 25.912 27.045 A. paphia (Bogei) 0.021 1.868 10.412 12.301 Winter A. mylitta (Jadei) 0.131 1.479 47.559 49.169 A. paphia (Patrajhada) 0.005 0.132 0.122 0.259 2N = 10,000 documented, which creates confusion in commercial sectors during grading and trading. This study documents the relative abundance of deformed cocoons produced in different rearing seasons of the year. Because of the availability of both A. mylitta and A. paphia, the important tasar zones of Singda, Kendujuani, Thakurmunda, Sarat, and Kaptipada in the Mayurbhanj district of Orissa were chosen for this study. Ten thousand cocoons of both A. mylitta and A. paphia were collected at random in five equal groups from the above five localities during each of the three rearing seasons in 1987. The Rainy season and Winter cocoons of A. paphia were collected from natural populations in the forests of the study sites. All other samples were taken from commercial cultures. Deformed cocoons were sorted from good cocoons in each sample group. Deformed cocoons were classified as either bipupate (a single cocoon having two pupae), bishellate (two cocoons joined by their shells, which interrupts the continuity of the silk filament), or flimsy (cocoons having thin and unsubstantial shells without strength or solidarity) (Nayak, B. K., M. L. Gupta, B. C. Guru & B. N. Satpathy, 1987, Towards classification of cocoons in tasar silk insect Antheraea mylitta Drury (Lepidoptera: Sa- turniidae), Sericologia 27:505-512). The mean percentages of each class of deformed cocoons during each season were calculated and the data were analyzed by season and by species (Table 1). In A. paphia, the percentage of deformed cocoons was highest (12.30%) during the Autumn Season, followed by Rainy Season (0.29%) and Winter Season (0.26%) (Table 1). In A. mylitta, the highest percentage (49.17%) of deformed cocoons appeared during the Winter season, followed by Autumn season (27.05%) and Rainy season (6.88%). Trends in the occurrence of deformed cocoons of both A. paphia and A. mylitta were found to be similar with respect to each type of cocoon deformity. The percentage of flimsy cocoons in A. mylitta increased dramatically from the Rainy season (6.13%) to Winter Season (47.60%), whereas the number of flimsy cocoons was negligible (0.12%) in natural populations of A. paphia during the Rainy and Winter seasons. The maximum number of deformed cocoons of A. paphia occurred during Au- tumn Season and was probably due to its rearing in semidomesticated conditions. Such rearing is against its natural tendency, as it usually grows only during the Rainy and Winter seasons. In the case of A. mylitta, the percentage of deformed cocoons was much greater and might result from the frequent handling of the silkworm during the semi- domesticated rearing. The higher frequency of deformed cocoons in the Winter Season might result from physioclimatic stress at the onset of Winter in the places of study. Nayak et al. (Nayak, B. K., A. K. Dash, P. K. Das, A. K. Sasmal & B. N. Satpathy, 1986, Sex association in doubled cocoons of tasar silk insect Antheraea mylitta Drury (Lepidoptera: Saturniidae), Sericologia 26:285-290) assumed that physiological, physical, or environmental stress causes formation of bipupate (double) cocoons. However, studies should be carried out 36 JOURNAL OF THE LEPIDOPTERISTS SOCIETY to determine the effects of varying climatic conditions and of handling of silkworms during rearing and spinning on the frequency of deformed cocoons. A. K. DasH* AND B. K. Nayak, State Sericultural Research Station, Baripada-757001, Orissa, India. * Present address: Dept. of Zoology, Dr. J. N. College, Salt Road, Balasore-75601, India. Received for publication 26 March 1989; revised 12 June 1989; accepted 2 September 1989. BOOK REVIEWS Journal of the Lepidopterists’ Society 44(1), 1990, 37-38 CIE GUIDES TO INSECTS OF IMPORTANCE TO MAN. 1. LEPIDOPTERA, by J. D. Holloway, J. D. Bradley, and D. J. Carter (C. R. Betts, ed.). 1987. CAB International Institute of Entomology, London. Distributed by CAB International, 56 Queen’s Gate, London SW7 5JR, United Kingdom; and 845 North Park Avenue, Tucson, Arizona 85719, USA. 262 pp., many unnumbered illustrations, 19.3 x 26.7 cm. Hard cover, ISBN-0-85198-594-6, £25.00 ($52.25); spiral bound, ISBN-0-85198-594-7, £14.00 ($29.00). Fortunately for lepidopterists, the first guide produced by the Commonwealth Institute of Entomology (CIE) treats the Lepidoptera. It is a good, generalized introduction to the order that addresses characterization and recognition for the world fauna of higher taxa down to the family level, and for several large families, to the subfamily level. In this effort the work is a boon to students and nearly unique for contemporary treatments. It was developed as a manual for students of the CIE training course for recognition and handling of Lepidoptera. The introduction treats characterization of the order, discussion of injurious and ben- eficial species, problems associated with identification, collection and preparation of spec- imens, and a checklist of higher taxa. I found myself agreeing with the caveat concerning the need to exercise care to ensure that specimens are properly handled, mounted, and labeled so that as many characters as possible are retained. Directions for dissecting and mounting genitalia on slides are perhaps not quite adequate for the uninitiated who does not have access to a tutor, but they suffice. Euparol is indicated as the mounting medium of choice; Canada balsam should be recognized as another long-term mounting medium. A checklist of higher taxa presents useful information on numerical size of families, their geographic distribution, and their current placement within superfamilies, infraorders, and suborders. Suborders, infraorders, and divisions are briefly characterized following N. P. Kristensen (1984, Steenstrupia 10:141-191). Note that 99% of the Lepidoptera are in the division Ditrysia of the infraorder Heteroneura and suborder Glossata. Categories to division are keyed in four couplets; several taxa are grouped in the same couplet. Adult ditrysian Lepidoptera are keyed to family using characters of the head, thorax, wings, and abdomen when possible. Occasionally, genital characters are used. All characters are illustrated throughout the key. Inevitably, some specimens will not pass through the key “correctly,” and considerable practice with specimens and access to an array of identified specimens are useful adjuncts to the process. Identification of Lepidoptera is not easy—it requires considerable experience—but it is made easier by concentrating on a limited geographic area. Most of the text is devoted to characterization of families and subfamilies; John Bradley is responsible for the “microlepidoptera” and Jeremy Holloway for the “macrolepidop- tera.” Each does a fine job of summarizing characters, capturing nuances of significant features that are useful but not invariably diagnostic, balancing various authors’ views of classification, illustrating useful characters, citing pertinent literature [however, Der- zhavets (1984) cited on page 147 was omitted from the references section], and noting representative species. Many will be surprised that nearly all examples are drawn from faunas other than the New World. David Carter developed the illustrated key to last instar larvae and the family characterizations based on this stage. The key is usable but could afford a few more illustrations of characters and character states. Because I identify 1500+ mostly non-North American microlepidopteran larvae each year, I have become addicted to the illustrated key by F. W. Stehr and P. J. Martinat (1987, pp. 306-340, in Stehr, F. W., ed., Immature Insects), which is particularly well illustrated, as a preliminary source for family level identification. A short glossary is helpful. The 21-page list of references (nearly all post 1950) is very useful for anyone attempting to learn more about classification of the order. 38 JOURNAL OF THE LEPIDOPTERISTS’ SOCIETY I strongly recommend this book to those lepidopterists who want to stray beyond the butterflies and skippers for a general introduction to this extremely diverse group. RONALD W. HonpGEs, Systematic Entomology Laboratory, USDA, % U.S. National Museum of Natural History, MRC-168, Washington, D.C. 20560. Journal of the Lepidopterists’ Society 44(1), 1990, 38 NORDEUROPAS PRYDVINGER (THE OECOPHORIDAE OF NORTHERN EUROPE), by Eivind Palm (in Danish with brief English summary for each species). [DANMARKS DYRELIV, vol. 4]. 1989. Fauna Boger, Copenhagen. Distributed by Apollo Books, Lundbyvej 36, DK-5700 Svendborg, Denmark. 247 pp., 214 text figs., 199 maps, 25 color plates. Hard cover, 17.5 x 25 cm, ISBN 87-87738-08-6, Danish kroner 420 (plus postage) (about $56.00). This work is a manual of the Oecophoridae of Scandinavia, areas immediately adjacent to the Baltic Sea, and northern Netherlands with particular emphasis on Denmark. It has an introduction to the family, its zoogeography, morphological characters of adults, immatures, ecological habitats, phenology, and economic importance. It has a map of the region to show the counties/districts of the countries and one at a larger scale of Denmark. Subfamilies and genera have identification keys, but species do not. For genera the treatment consists of a brief summary of distribution, number of species, diagnosis, differentiation from closely allied taxa, discussion of immature stages and hosts; for species it consists of differentiating characters, extensive statement of distribution, and bionomics. Each species has a dot map to indicate verified distribution data by county /district for the entire region, and for 80 species there is an additional map showing more specific localities within Denmark. Illustrations generally are very good, particularly the eight color plates of adults. Each species has at least one specimen shown in color, sometimes more when the species is variable or when the sexes are dimorphic or dichromatic. Differences between closely similar species are illustrated by male and/or female genitalia, monochrome plates of wings with key characters indicated, or line drawings of specific structures. Occasional habitat photographs to indicate where a species has been found are interesting but not always top quality. Scandinavia has an oecophorid fauna of 119 species as compared with approximately 226 in America north of Mexico. Within the family, representation by subfamily (number of North American taxa in parentheses) differs greatly between the two areas: Depres- sariinae 74 (108), Ethmiinae 6 (50), Peleopodinae 0 (2), Stenomatinae 0 (24), Oecophorinae 35 (41), Deuterogoniinae 1 (0), Chimabachinae 3 (1), reflecting both Scandinavia’s north- ern location relative to the Palearctic Region and the development of Stenomatinae and Ethmiinae in the northern Neotropical and southern Nearctic Regions. The distribution maps show very clearly that most species occur within the southern %-% of the area; only Agonopterix arctica (Strand) occurs in the north and not in the south, and only a limited number of species occur throughout Scandinavia. Perhaps because the volume is a manual, complete lists of synonyms and literature citations to them are missing. I was puzzled by the “Literature” section not being al- phabetically arranged throughout. It appears as though items were found after the initial numbered list was developed and added at the end; thus, there are four alphabetically arranged lists within this section. The English summary for each species treats distribution, frequency of occurrence, habitat(s), and when and where adults may be collected. Although the text is in Danish, reference to the illustrations, similarity of many words to English cognates, and equivalents in scientific terms, make the content generally available to an inquiring English reader. I recommend this work to everyone interested in gelechioid moths in particular, and Lepidoptera in general. The author and editor are to be commended for this fine volume and for the execution of the series. RONALD W. HODGES, Systematic Entomology Laboratory, USDA, % U.S. National Museum of Natural History, MRC-168, Washington, D.C. 20560. VOLUME 44, NUMBER 1 39 Journal of the Lepidopterists’ Society 44(1), 1990, 39-40 SATURNIIDAE: ECOLOGICAL AND BEHAVIORAL OBSERVATIONS OF SELECT ATTACINI, by Robert D. Weast. 1989. Published privately by the author, whose address is: 5324 NW 78th Court, Johnston, Iowa 50131. 53 pp., 3 color plates, 1 text fig. Soft cover, 21.5 x 28 em, no ISBN number, $16.90 (postpaid). With the increasing availability of word processing programs and desk-top publishing on personal computers, it came as no surprise to see this vehicle used to publish an entomological work. Such methods need to be used cautiously to publish scientific work, and apparently the result does not constitute valid publication under the International Code of Zoological Nomenclature (1985, Articles 8 & 9). Since Weast did not propose any new names, the question of whether this book (some may prefer to call it a booklet) is a valid publication is not so critical. However, should this outlet become commonly utilized, the tempting and obvious opportunity to circumvent peer review and editorial input of the manuscript can lead to reduced quality of scientific literature. Even where manuscripts are refereed by other scientists, I would recommend that authors abstain from using desk-top publishing for work that is intended to have widespread and per- manent application. The vinyl cover, textured bond paper, and plastic spine are of good quality. The three color plates are glossy photographic prints measuring 18 x 25 cm and are attached loosely onto the pages with rubber cement. They should have been dry mounted. I will protect my copy by sheathing those three pages individually in clear plastic. The 13 photos in these three plates have great aesthetic and scientific value. The book will be fine for personal libraries, but less suitable for loaning out of public libraries. The text provides discussions filled with details pertaining to field observations, rearing procedures, geographical localities, and ecological aspects. I learned a lot. I am sure that the great majority of statements in the text are accurate and factual. Weast generously gives credit throughout the text to all his correspondents for their ideas and discoveries; many authors are much less willing to credit others. Weast has made many trips to study Saturniinae, and in this book shares a lot of his personal observations made in southern Texas, Arizona, France, etc., effectively conveying his life-long enthusiasm for these big moths. He has carried out various experiments to introduce/colonize certain species (Samia cynthia, Callosamia promethea, Automeris io) into urban and rural locales, mostly in Iowa, where they did not occur formerly. Some data are qualitative, but he provides enough quantitative data in tabular form, combined with insightful discussion, that I believe this work will be useful to persons studying saturniid population ecology. Weast is to be commended for disproving the myth that everything is already known about the large, common saturniids. The organization is weak in some ways. Many disjunct points are scattered throughout the text. Some paragraphs consist of a single sentence. Some are arranged under inap- propriate subheadings. Certain examples detract from the scientific image of the work; these include referring to vertebrates as vertebrae (in a discussion on predation) and misusing the word speciation to convey a taxonomic rather than an evolutionary concept. I was pleased to find satisfactory answers to several questions I have long puzzled over. These include: Why has Samia cynthia died out in certain cities and not others? Does S. cynthia really occur in Savannah, Georgia, and throughout most of Ohio and Indiana? Is the widely published report of an urban population of C. promethea specializing on lilac in Milwaukee, Wisconsin, really valid? What is the western range of C. promethea along the region between Minnesota and central Texas? Most errors in the text are minor, but I feel the need to rectify a few. Weast consistently misspells Lemaire as LeMaire and Veracruz as Vera Cruz. The 1906 and 1907 citations in his bibliography were published by Caroline Soule, not Fred Tepper. Israel is incorrectly referred to as Palestine. Lastly, I suspect it unwise to publish the particulars when your friends repeatedly break federal law by collecting in national parks. I consider the book to be overpriced, but the price is still generally affordable and substantially lower than the cost of most scientific books on the market. Despite the 40 JOURNAL OF THE LEPIDOPTERISTS SOCIETY shortcomings I have outlined above, it offers a lot of value and interest. I recommend it to the many lepidopterists who are enthusiastic in their rearing and field collecting of larger Saturniidae. RICHARD S. PEIGLER, Department of Zoology, Denver Museum of Natural History, 2001 Colorado Boulevard, Denver, Colorado 80205. Journal of the Lepidopterists’ Society 44(1), 1990, 40 THE BUTTERFLIES OF MANITOBA, by Paul Klassen, A. Richard Westwood, William B. Preston, & W. Brian McKillop. 1989. Manitoba Museum of Man and Nature, Winnipeg, Manitoba, Canada. vi + 290 pp. with 27 color plates, distribution maps, and various text illustrations. Soft cover (plastic laminate), 20.5 x 25 cm, ISBN-0-920704-16-6; $18.66 (U.S.) + $1.70 shipping. This book is a comprehensive treatment of the butterfly fauna of Manitoba. The - introductory pages include such topics as butterflies in perspective, nomenclature, the differences between butterflies and moths, butterfly life histories, Manitoba as an envi- ronment for butterflies, Manitoba biomes, butterfly distribution, conservation, and study, with a brief historical perspective on early lepidopterists in Manitoba. The scientific treatment begins with the Hesperioidea and concludes with the Danaidae. Then follows a listing of potential and dubious species, a comprehensive list of references, and a glossary of terms. The six appendices include butterfly collecting methods, a list of larval and adult foodplants, a checklist of Manitoba butterflies, geographic locations (latitude and longitude) of collection sites with a map of major areas, summary of flight periods, and the Lepidopterists’ Society’s “Statement of the Committee on Collecting Policy.” An index of species concludes the book. Each species entry includes information and topics in the following order: common name, scientific name (author and date) with basic synonyms, plate and figure numbers, description, life cycle, habitat, range, Manitoba records, subspecies, general remarks. A dot distribution map accompanies each entry, with the dots color-coded for each family. The color plates are well done, and, for the most part, the specimen colors are natural (for museum specimens), while the plate backgrounds vary from white to antique-white. Specimens are shown life-size with three illustrations for each species: male dorsal, female dorsal, and ventral (male or female). Scientific nomenclature follows Klassen’s 1984 Man- itoba checklist published in J. Lepid. Soc. (38:32-39), and differs significantly in some groups from the 1981 Miller and Brown catalogue and other recent publications. The Miller and Brown names, however, are shown as synonyms. This is the only area in which I offer adverse criticism, as yet another set of scientific names is introduced, which only further muddles nomenclature. Manitoba encompasses six vegetation zones ranging from tall grass prairie through boreal coniferous forest to arctic tundra. Consequently there is wide diversity among the 144 butterfly species recorded from this province. Although several subspecies have been described from Manitoba, there are no unique species. The dominant groups are Nym- phalidae (40 species), Hesperioidea (33), Lycaenidae (27), and Satyridae (19). The Butterflies of Manitoba, with an overall format of 8 x 10’, is nicely produced and has a pleasing aspect regarding the general layout. The text provides a wealth of information about Manitoba butterflies and is certainly “must” reading for any collector wishing to visit this Canadian province. This book is the most recent addition to the collection, from various publishers, of North American regional butterfly works that have appeared during the past several years. It will be a valuable addition to the bookshelf of any collector with an interest in the North American fauna. CLIFFORD D. FERRIS, Bioengineering Program, University of Wyoming, P.O. Box 3295, University Station, Laramie, Wyoming 82071-3295. VOLUME 44, NUMBER 1 4] Journal of the Lepidopterists’ Society 44(1), 1990, 41 MARIPOSAS DE VENEZUELA, by Theophile Raymond. 1982. Ediciones Corpoven, Caracas, Venezuela. 275 pp., 53 plates. Hard cover, 29.5