V

OMPHALINISSN 1925-1858

Vol. II, No 4 Newsletter of May 7, 2011

OMPHALINA OMPHALINA is the lackadaisical newsletter of Foray Newfoundland & Labrador. There is no schedule of publications, no promise to appear again. Its primary purpose is to serve as a conduit of information to registrants of the upcoming foray and secondarily as a communications tool with members.

is an amateur, volunteer-run, community, The content is neither discussed nor approved not-for-profi t organization with a mission to by the Board of Directors. Therefore, opinions organize enjoyable and informative amateur expressed do not represent the views of the Board, mushroom forays in Newfoundland and the Corporation, the partners, the sponsors, or the Labrador and disseminate the knowledge members. Opinions are solely those of the authors and uncredited opinions solely those of the Editor. gained. Please address comments, complaints and contribu- Webpage: www.nlmushrooms.ca tions to Andrus Voitk, self-appointed Editor:

foray AT nlmushrooms DOT ca, ADDRESS Foray Newfoundland & Labrador 21 Pond Rd. … who eagerly invites contributions to OMPHALINA, deal- Rocky Harbour NL ing with any aspect even remotely related to mushrooms. A0K 4N0 Authors are guaranteed instant fame—fortune to follow. Authors retain copyright to published material, and submis- CANADA sion indicates permission to publish, subject to the usual E-mail: info AT nlmushrooms DOT ca editorial decisions. Issues are freely available to the public on the FNL website. Because content is protected by authors’ BOARD OF DIRECTORS CONSULTANTS copyright, editors of other publications wishing to use any material, should ask fi rst.

MYCOLOGICAL COVER Michael Burzynski Dave Malloch PRESIDENT NB MUSEUM “Mulched garden” morels in a municipal fl ower bed Geoff Thurlow in Pasadena (NL, not California), found by Henry AUDITOR TREASURER Mann. A huge crop apperared the year after the Rick Squire Faye Murrin fl ower beds were put in, an ephemeral phenomenon SQUIRE & HYNES SECRETARY not expected to be repeated in subsequent years—see “distress fruiting”, discussed in the lead article. Randy Batten LEGAL COUNSEL Sean Dolter Andrew May Genetic studies by Kuo and others have identifi ed BROTHERS & BURDEN Jamie Graham at least 16 genetic morel species in North America. Only four of these have readily discernible macro- Jeri Graham RISK MANAGEMENT scopic differences. The others split into groupings Anne Marceau Sue Sullivan of indistinguishably similar species that may or may SULLIVAN RISK Andrus Voitk not be related. If morels follow the experience with CONSULTING Maria Voitk other mushrooms, then it is unlikely that there are

Nathan Wareham WEB CONSULTANT more than four species in Newfoundland and Lab- Marian Wissink Jim Parsons rador. Our distress fruiters are more plentiful and THOUGHT NEST larger than our wild black morels. A genetic study is CONSULTING required to see what we have and whether they differ.

OMPHALINA V Vol. II, No 4 OMPHALIN ISSN 1925-1858 May 7, 2011

CONTENT

Editorial ...... 2 Foray Matters ...... 3 Distress fruiting Andrus Voitk ...... 4 Mushroom caviar Britt Bunyard ...... 7 Tongues Tony Wright ...... 8 Of and tongues Henry Mann ...... 10 Alder competition ...... 12 Newfoundland chanterelles Cassia Vilneff & Greg Thorn ...... 13 Our alders Andrus Voitk ...... 18 Partners ...... inside back cover Foray Notice ...... back cover

This issue and all previous issues available for download from the Foray Newfoundland & Labrador website .

OMPHALINA MMessageessage ffromrom tthehe EEditorditor

The objective of this issue is to alert you that morel sia’s study by Ralph Jarvis, manager of Salmonier season is upon us. Here in Newfoundland and Labra- Nature Park. Not only did Ralph make available the dor we do not really have enough morels to speak of Park’s resources of food and housing for Cassia’s a “morel season”, but 2010 was an exception, so that investigations, pick her up and deliver her to the we may hope for 2011. Even here occasional bursts airport, host her in his home during transit, but also of “distress fruiting”, as discussed in the lead article, for the greater good of Science, he offered up his are noted. We have seen two such episodes in 10 sea- personal and very secret chanterelle patches to her sons, each reported to us by somebody else. Because investigation. The help of Ralph and Salmonier is an of the hype surrounding morels elsewhere and be- example of the best use of public resources to learn cause of the long hiatus from picking mushrooms, it more about our natural heritage. These partners can is at least nice to look for this spring delicacy. Begin be justifi ably proud of the report published here. looking by the end of March, until June, just do not Our forays are a pleasant experience thanks to the let me catch you looking in my patch! generous support of our partners, most returning year The beauty of Mushroom Caviar, submitted by Britt after year. While participants pay most of the direct Bunyard for the Empty Skillet, is that with even a foray costs, most costs of our Faculty Foray, Recep- few morels a small amount of caviar can be made. tion and “scientifi c efforts” are borne by our partners. Without them we would not have much to show after Most heartening for an editor is to learn that some- a pleasant weekend, and studies such as Cassia’s body actually reads the publication. Therefore, it was would not be possible. In fact, it is but one of several a manyfold delight to receive from Tony Wright an research project in which we cooperate. This issue is unsolicited contribution, sparked by material printed dedicated to our partners, whom we list on the inside in a previous issue. Through a felicitous coincidence, back cover. Henry Mann had prepared an article about the same organism for this issue. These have now become complementary companion pieces, Tony’s deal- Happy mushrooming! ing with the of alder tongue gall , and Henry’s discussing its biology. It is great, when andrus something goes well, albeit through no planning or effort of one’s own. Henry’s article is part of a series, “The plant galls of Newfoundland and Labrador”, that he has undertaken together with Wade Bowers. Most of them have been designed for the Osprey, but since this was a mycological matter, Henry decided to offer this one to OMPHALINA. The fi nal article deserves especial mention. This is the fi rst research paper offered to OMPHALINA, done on our Newfoundland chanterelles. We gratefully note the contribution offered to Cas-

2 OMPHALINA Foray matters…

This newsletter began as a tool to Nova Park in May. Imagine what cellatum, as well as the equally rare communicate with participants about mushrooms that mossy understory Degelia plumbea; both are listed as the upcoming foray. This page will will produce by September! And Species of Special Concern in New- be a regular feature immediately according to Mac Pitcher, this lichen foundland and Labrador by COSE- after the editorial, until foray time. friendly habitat is ideal for the rare WIC (the Committee on the Status of The banner photo comes from Terra boreal felt lichen Epiderma pedi- Endangered Wildlife in Canada).

Registration fee In addition we have an excellent Mushroom Dye- The Registration Form is confusing some members ing workshop planned. For details, see notice in the OMPHALINA. about the FUNGI deduction. If you are a member Foray issue of now and get FUNGI as part of your membership fee, Fungal Arts you are not eligible for the deduction at registration. Please do not forget about our Tell and Sell Arts and Your 2010-2011 membership lapses at the beginning Crafts display. See the Foray issue of OMPHALINA for of the foray, and when you register, you also renew it details. Think about showing your mushroom art or for 2011-2012. Part of your fee covers your subscrip- craft product to the rest of us. Contact Urve Manuel tion to FUNGI. if you would like to The deduction is for those registrants, who have an share anything with us (or sell us something). existing personal subscription to FUNGI, indepen- Contest dent of FNL or the Foray. Of course, if they wish a second copy, this is possible by paying the full fee PLEASE NOTE THE ALDER GALL COMPETITION, p 12 of without claiming the FUNGI deduction. this issue. Registrations As we go to press, there are over one dozen regis- trants for the upcoming foray. The exact number is unclear at the moment, as with the extra cash fl ow our Registrar/Treasurer has gone off on a holiday. Hmmm… Workshops Unfortunately we shall not be able to offer a Me- dicinal Mushrooms workshop this time, as we had planned. Perhaps in the future. However, in addition to our regular workshops, we do have a Mushroom Cooking workshop. Details and notice in a future issue, once our master chef is back from holidays. OMPHALINA 3 ng Distress Frui ng pa ern of Morchella —the desperate frui Andrus Voitk One May while visiting our plant associates. If morels grandchildren in Ontario, have discovered a place our eight-year old grand- where these are satisfi ed, daughter, Triina, proudly they may fruit year after showed us a spot by two year for a long time, varying pine stumps near her back only as conditions vary. And, yard, where she had picked like most other mushrooms, a small bagful of morels. In- DNA soil testing reveals that deed, we found a few more. they live quietly in many This fi nd prompted a discus- other places without ever sion with the grandchildren. disturbing the terrestrial Yes, they had looked and no, mycophile with the spectre they had not found any mo- of their sporocarps. Exactly rels elsewhere on the 26 acre like most other mycorrhizal forested property. We listed mushrooms. How boring! things special to this particu- But morels also have other, lar spot: pines, piles of brush much more peculiar fruiting from the branches of the habits. Consider the follow- felled trees, large amounts of ing: pine needles on the ground, possible sawdust from fell- 1. Massive fruiting the fi rst ing the trees and disturbance year after a forest fi re. of the ground from the 2. In areas that still have excessive activity associated them, morels are known with felling the trees. To to fruit around dead check whether any of these elms. Folks living in factors was a stimulus for such areas claim that of- morel fruiting, we sought ten the fruiting is around out several other spots with certain segments of the pines, or brush piles, or tree, not all around, pine needles, or sawdust, changing over time. or ground disturbance. No Further, most of these morels. Finally grandson elms are not dead but Toomas asked, “What about dying, losing more and the dead tree?” He knew that more with each year but two other pines in other lo- still having a few leaf cations on the lot were taken producing twigs. down last year at the same time. Surprise! A search of 3. Gardeners often report these areas yielded a crop of an unexpected morel morels around each stump crop in their garden. as well. Veteran mycophiles can appear very wise in the In some respects morels be- ways of the world by have like other mushrooms. saying without being They have their habitat re- told, that the involved quirements for temperature, beds underwent major light, moisture, substrate and

4 OOMPHALINAMPHALINA digging, fertilizing, mulching in the previous season. she never feels the need to engage in the tedious practice This turns out to be so, invariably. Veteran myco- of sex? Is it further possible that if her selected partner philes can now inform the gardener that this is an dies or the connection is forcibly severed, Ms Morchella, ephemeral event, not to be repeated in future years. left without a ready source of succor, somehow senses it Invariably this disappointing information turns out to through her entire being as a threat to her survival? Is it be correct and the mycophile’s stock will rise in the possible that she is so programmed, that instead of weep- gardener’s evaluation, even if it takes a year. ing and throwing up her hands, fi lling the air with cries of “Alack!” and “Woe is me!”, she instead regrets lost What do the above three examples have in common with opportunities and unseized pleasures? Is it possible that the pine stump morels? Death of a mycorrhizal partner. In her response to impending doom is to dust off her sexual the case of the felled pines and forest fi res, this is obvious. urge and channel all her remaining energies into explosive In the case of the dying elm, it is dying piece meal, caus- orgiastic pursuits to produce a myriad of progeny around ing a shift in fruiting to last season’s dead roots. As for her deathbed, to whom she can give her last words: “Go the gardener, who always assumes the new manure and/ forth and multiply”? or mulch to be the cause, if not the source of her morels, might it not be, instead, disruption of roots and/or myce- Farmers, woodsmen and other people close to nature lia, disconnection of mutualistic partners by the energetic often describe such a phenomenon: some organisms digging that accompanies such enthusiastic revitalizing of seem to react to the threat of imminent death by mark- fl ower beds? edly increased reproduction. The teleological explanation proffered for this observation is that some organisms are Is it likely, at least possible, that Ms Morchella estab- lishes a mycorrhizal partnership with her sugar-daddy programmed with such a response as an effort to save the tree, which allows her to thrive quietly in such bliss that species. The sound of the last knell spurs them to multi-

Two of the “yellow” morels found by Triina and Toomas around ing of the tree the previous year—morels did not reappear in pine stumps. The fruiting is almost certainly related to the fell- these locations in subsequent seasons.

OMPHALINA 5 ply, so that should they die, the gene pool is preserved. With respect to morels, this phenomenon has been thoroughly discussed by Mi- chael Kuo under the heading, “We’re outta here!”, in his highly recommended book, “Morels”(1). I am not aware that the concept has been the subject of scientifi c inquiry. Is there a trigger? Is there a specifi c receptor? What is the mediator? Can agents be introduced that will trigger the receptors, regardless of disruption of mutualistic rela- tionship? In other words, can we learn what is required to trigger fruiting and thereby “farm” morels pharmacologically? After loss of its mycorrhizal partner, does the organism establish other relationships with nearby trees? Or does it lie dormant, await- ing new mutualistic opportunities to present themselves? Or does it up and die? I have named this phenomenon “distress fruiting” (2) to distinguish it from “stress fruiting”. The latter condition has been investigated by publicly funded biosadists, who study the effect of various stressors Henry Mann in a typical Danger Boy morel pose, showing off three exam- on an organism’s subsequent fertility and ples of the mulched-garden morel from the crop shown on the cover. ability to reproduce. Stressors include application of noxious stimuli, administering non- References: lethal doses of toxins, giving chemicals (e.g. salt) in 1. Kuo, M: Morels. The University of Michigan excessive concentrations or temporary withholding Press, Ann Arbor, Mich, USA; 2005. water or other requirement of fruit production. Not unsurprisingly, this type of calculated torture almost 2. Voitk AJ: Polyozellus multiplex—an example always decreases fruiting, confi rmed by myriads of of our mycological ignorance. Osprey 37:20-22; grant-endowed papers studying tortured animals and 2006. plants. Distress fruiting, on the other hand, is fruiting in response to an impending fatal or potentially fatal event to the organism or its status quo. Proponents of this theory believe that faced with loss of continued existence and given an opportunity to set its house in order, most organisms do not make out a will, forgive their transgressors, make confessions or ask for absolution. No, they have a last great fl ing. Go big and then just go.

“Distress fruiting” of the same morels shown on the title banner and side bar. Found by Claudia Hanel and all consumed at the Humber Natural His- tory Society AGM later in the same day.

6 OMPHALINA The empty skillet

Maria Voitk

From the kitchen of Britt Bunyard, where he pub- made by Britt from lishes and edits FUNGI, comes a recipe for MUSH- mushrooms that he ROOM CAVIAR, from a favorite cookbook of his by brought to our Quidi Rita Rosenberg. The book is out of print, but some- Vidi QuuQup (pictured times used copies can be found on Amazon. Since on right). Since we we lack permission to reprint this recipe, Britt’s is lack black trumpets in altered a little to avoid copyright infringement. The the province, Britt’s original recipe calls for mixed wild mushrooms, but version, is with morels Britt let me know that Rita had used dried black mo- only, should you be rels and black trumpets, mixed half and half, at one lucky enough to fi nd of the Telluride forays. Anybody who attended the some. If not, remember Viking Foray last year will remember this caviar, that Rita Rosenberg’s original recipe called MMushroomushroom caviarcaviar for mixed wild mushrooms, so you can still try it. Britt Bunyard

INGREDIENTS

¼ cup butter 2 tbsp lemon juice ½ lb fresh morels 1 tbsp Worcestershire (or reconstitute 1 oz dried sauce morels) 2 tbsp mayonnaise 2 tbsp fi nely chopped salt and freshly ground shallots pepper to taste

PROCEDURE In an empty skillet, melt butter and sauté the mushrooms over medium heat for 5 minutes. Remove from heat. Cool slightly. Drain. Place in blender with lemon juice, Worcestershire sauce, mayonnaise. Pulse to a blended but coarse texture. Add salt and pepper to taste. Chill. Enjoy on toast, bread or crackers. Danger Boy Bunyard showing two Wisconsin morels not found in Newfoundland and Labrador (yellow and Makes about one cup. half-free morel—we also do not have the free one).

6 OOMPHALINAMPHALINA 7 AALDERLDER bbyy TTonyony TTONGUESONGUES WWrightright

I learned some ten years ago to recognize Alder Viking Foray last year, when Andrus Voitk tapped tongues, the result of a strange deformation of female me on the shoulder, somehow reading my thoughts alder catkins so that purplish tongues stick out and and saying helpfully, “ does not trouble then turn brown with age. I learned also that these these alders, which are Mountain Alders; it grows on tongues arise because an ascomycete fungus has Speckled Alders which are not found around here”. been at work on the alder, and that the fungus is I redirected my efforts to be more productive else- named Taphrina alni; Alnus being the genus of the where. Alder tree. After a little research it became clear that Imagine my surprise on reading Volume I, Issue 1 T. alni was the current name of an organism that had of OMPHALINA, to see a photo of MY Alder Tongues previously been known by other names, which were with a different name, Taphrina robinsoniana. now largely discarded synonyms, including T. amen- What’s going on here? I obviously have to do some torum, T. alnitorqua Tul., and T. alni-incanae. more research, so I went to work in my amateur fash- Most of my colleagues in the Mycological Society of ion searching for the answer. Toronto were unaware of these tongues, or of their After much head-scratching, I eventually realized fungal origin, and accordingly I appointed myself that it is really quite simple; Note 36 explains every- as the public relations agent for this fungus species thing. Which Note 36? Note 36 to the Annotated within our club. Spreading knowledge is one of our Cumulative Species List for the 2003-2010 New- club’s objectives, and I was immediately seized with foundland and Labrador Forays which I accessed the thought that I had picked up a little knowledge online. There it is boldly set forth that the name T. worthy of spreading. alni is that of a European species, while T. robinso- On our regular spring and fall club forays I told niana, a name which Giesenhagen documented in myself that if I found an alder, I should look for 1895, is the correct name of the species that grows the tongues evidencing T. alni, but I never found on our North American Speckled Alder. an alder on these forays, let alone the tongues. My A very helpful prime reference source is “A mono- luck changed, however, a few years ago, during graph of the genus Taphrina” by A.J. Mix, describing one of our club’s annual weekend Cain Forays near 98 species, published in the University of Kansas Huntsville, when I found an alder sporting my target tongues. I fi lled out the collection slip appropriately and proudly brought in the specimen and talked about my fi nd of Taphrina alni. Every year since then I have brought in T. alni at our Cain Forays, but I do not tell everybody that the host alder is barely 30 feet from our sorting and display hall! Even far afi eld I have been a public relations agent for T. alni, so I was closely examining the alders on that memorably blusterful day at L’Anse aux Mead- ows during Foray Newfoundland and Labrador’s

8 OMPHALINA Science Bulletin of April 29, 1949, which is available mens proved to be Taphrina robinsoniana. online. Collections by P. Spaulding in 1928 from Taphrina amentorum on Alnus rubra has been Spruce Branch and Harpoon River, Newfoundland, reported from Alaska (Ray, 1939).” feature among those examined by the author for this NAMA’s Annual Foray species lists, from forays in work. The differences between the closely related T. New York, Minnesota and Idaho, have recorded T. alni and T. robinsoniana are spelled out here. Genet- amentorum, and more recently have used the syn- ic work by authors including Fonseca and Rodrigues, onym T. alni, but they have not yet recorded published in 2003, has subsequently supported the T. robinsoniana. I will try to get it on the record at distinct nature of each. This 61-year old monograph this year’s NAMA Foray in Pennsylvania. of 1949 includes the following very clear passage: Hats off to Foray Newfoundland & Labrador 1 for “American collectors have been slow to fast-forwarding us to catch up with a 61 year-old recognize the identity of Taphrina robin- report of 79 year-old news about a “new” species de- soniana and many collections have been re- scribed 116 years ago! Now all of us in the east can ported as T. alni-incanae (Kühn) Magn. [T. amentorum (Sadeb.) Rostr.]. Conners (1932) place the name Taphrina robinsoniana on the tips of has mentioned this error in identifi cation our alder tongues. and has suggested the probability that Taphrina amentorum does not occur in east- ern North America. Conners’ suggestion led 1 Parenthetically, doff those hats also to the Rhode Island Natural to the examination of a very large number History Society, which recorded T. robinsoniana as one of the 40 of collections (listed above). All speci- fungi listed on its 2007 Bioblitz.

OMPHALINA 9 AALDERLDER bbyy HHenryenry oofTTONGUESfONGUESs & MMannann

We have two alders in Newfoundland, the Speck- can be readily distinguished by their leaves, catkins led Alder (Alnus incana ssp. rugosa) and the Green and buds. Actually botanists have determined that Alder or Mountain Alder (Alnus viridis ssp. crispa). our two alders belong to two slightly distantly related Both are common in the Humber Valley, but pro- groups or sub-genera. Parasites are often very host vincially Green Alder is the hardier species found specifi c and this feature is nicely demonstrated by throughout the Island and Labrador whereas Speck- our alders. The Woolly Alder Sawfl y (Eriocampa led Alder is more restricted to warmer valleys and ovata in the Latin tongue) has been ravaging and sheltered microclimates on the Island and north to defoliating our Speckled Alders here in the Humber south-central Labrador. Where conditions for growth Valley for a number of years, yet the Green Alders are very favourable, such as around Pasadena, remain untouched. Similarly, the Alder Tongue Gall Speckled Alder becomes the more dominant and commonly seen on our Speckled Alders is absent abundant species often reaching small tree status. from our Green Alders. Both the fl y and the gall fun- Mountain alder is a more shrubby species. Although gus (Taphrina robinsoniana in the Latin tongue) can casually very similar in appearance, the two species obviously readily distinguish these two alder species much more precisely than sometimes we humans do or can. The Alder Tongue Gall is very common in the Pasa- dena area of the Humber Valley and has also been noted in central Newfoundland in the Grand Falls area and on the Burin Peninsula. Tough dark out- growths (tongues or languets), often twisted and contorted, can be seen on the old seed “cones” (cat- kins) in winter (Figure 1). In spring, April to May depending on weather conditions, both the overwin- tering male and female catkins open their scales for pollination (Figure 2). Presumably, infection of the exposed tender female catkin tissues by the Ascomy- cete fungus occurs at this time. After pollination the catkin scales/bracts close together and the whole tiny female catkin will grow and enlarge into the cone- like structure bearing mature seeds in autumn. How- ever in areas of fungal infection, the growing myce- lium stimulates the plant tissues to proliferate and begin the growth of the abnormal structures known Figure 1. Speckled alder cones and galls in winter. as Alder Tongue Galls. By mid-June the tongues be-

10 OMPHALINA Figure 3. Developing female speckled alder “cones” with young emerging tongues, mid-June to early July.

Figure 2. Male and female speckled alder catkins in spring at pollination time. gin to appear as little green bumps pushing out from between the tightly appressed catkin scales. These bumps soon take on a reddish colour as they grow into the mature tongues which can reach several centimetres in length (Figures 3 & 4). In fall when the green “cones” mature, turn brown and open their scales to release the seeds, the galls dry, harden and turn brown to blackish (Figure 5). They and the dry catkins remain on the branches overwinter and often well into the next summer (Figure 1). The tongues are true galls, that is, they are composed mostly of plant tissues that were induced to proliferate by the Figure 4. Fully formed galls by early August. infecting fungus. On the other hand, bracket fungi and other mushroom parasites or saprophytes on incana ssp. incana). Photos of infected catkins look woody plants are not plant galls but fruiting bodies identical to ours. The scientifi c name given the Eu- of the fungi totally composed of fungal tissue. ropean gall causer is Taphrina alni. At least one of Interestingly, the Alder Tongue Gall also occurs in the European alders (A. glutinosa) has been imported Europe on their native alders (A. glutinosa and A. and planted throughout eastern North America and

OMPHALINA 11 Alder contest

If this were the Journal of Wild Ungu- lates in Newfoundland and Labrador, it would have one article about moose and one about caribou, and be done with it. As if they were totally independent and free organisms!!! The mycophile knows this just ain’t so: we are all links in an interdependent chain that must remain unbroken. The two previous articles demonstrated clearly that identifying trees is just as important for the mycophile, as is iden- tifying mushrooms. Many times, know- ing the tree will identify the mushroom. Therefore, an article about trees is quite at home in a mushroom journal. Mush- Figure 5. By early September “cones” begin to turn brown and galls to dry and harden. (Note sawfl y damage to leaves.) rooms are so interconnected throughout all of nature, that even an owl on the cov- records exist for Newfoundland as well. It therefore er of a mushroom magazine would not seems possible that both species of Taphrina (rob- surprise us. Anyway, never mind the owl, insoniana and alni) may occur in North America or but on the last page (p. 18) you will find a some combination of the two. Our Speckled Alder summary of the differences between our is also much more closely related to the two Euro- two alders in the winter (from our 2010 pean alders that also produce tongue galls than to our Winter Foray Report). In the summer it is Green Alder. It would be interesting to know if the too easy. Once you learn to tell our alders European Taphrina species/variety could infect our apart, you will be surprised to find that Speckled Alder, and vice-versa. Recent DNA studies very many fungi seem to prefer one or have shown that the two fungi are so closely related the other species, some exclusively. that some taxonomic “lumpers” might even consider Why? For many mushrooms the reason them just variants of the same species whereas the may not be immediately obvious. If you “splitters” would certainly insist to the death that read the article by Henry Mann and then they are “good” distinct species. Such is the nature look at the differences between the spe- of taxonomy; the fungi don’t care what they are cies, at least one possible explanation called either in the English or the Latin tongue, only might suggest itself for alder taphrinas. the taxonomists do! In nature, groups within species are continually diverging, some continue diverging We hereby declare open a contest. Sug- to become new species, others eventually recombine gest a possible reason for Taphrina to or retain the ability to recombine when given the op- propagate on speckled alder, but not portunity, so the whole process is a moving target, a mountain alder. Send your answer to the dynamic system that just sometimes will not fi t into Editor . the neat fi xed pigeonholes of our artifi cial man-made Results will be announced at the 2011 taxonomic categories. foray and the first best answer will get a very, very incredibly coveted and valuable Answering the question, “When is a group a spe- prize. If you suggest a method to test cies?” is sometimes easy, but often not. your hypothesis, even better.

12 OMPHALINA NewfoundlandNewfoundland goldengolden chanterelles:chanterelles: examiningexamining theirtheir identityidentity andand regionalregional levelslevels ofof damagedamage byby slugsslugs andand flyfly larvaelarvae

Cassia Vilneff and R. Greg Thorn Department of Biology, University of Western Ontario, London ON N6A 5B7 [email protected] and [email protected]

The most recent edition of the detected by DNA data. Findings plants (Pilz et al. 2003). Both the Dictionary of Fungi accepts based on molecular analyses have green plants and fungi depend approximately 97,000 species of shown that within the realm of on each other for health, growth fungi, however the British mycol- mushrooms, things are not always and survival (Pilz et al. 1998). ogist David Hawksworth (1991) what they seem to be. Mushrooms The mycelium grows through the estimated that there may be 1.5 that look different are not always soil, obtaining water and nutrients million species worldwide. With different species and, alternatively, (such as nitrogen and phospho- such a discrepancy between what species or individuals that appear rus) that are exchanged for sug- is known and what may exist, it similar are not always closely ars from the host plants (usually is no surprise that many questions related. Consequently, many trees). With enough water, energy concerning fungi remain unan- previously accepted species and (sugars), and other resources, swered. Previously, mycologists ancestral relationships need to be mushroom fruiting bodies may identifi ed and described species critically re-examined. be produced. A single ectomycor- primarily based on morphologi- Chanterelles are one of the most rhizal individual can become quite cal characteristics, visible with widely recognized and sought af- large and produce many fruiting or without microscopy. Today, ter wild edible mushrooms across bodies. This explains why golden analyses of DNA sequence data the globe (Pilz et al. 2003). The chanterelles are typically found in are widely used to determine spe- common name chanterelle refers patches. cies as well as ancestral relation- to species within the genus Can- Luckily for those who enjoy them, ships among fungi. These stud- tharellus, particularly C. cibarius, the removal of mushrooms does ies have often shown that using the golden chanterelle and C. not seem to impact future harvests morphological properties alone to formosus the Pacifi c golden chan- negatively (Arora and Dunham determine species limits is insuf- terelle. Chanterelles are ectomyc- 2008). Chanterelles are highly fi cient, although corroborating orrhizal mushrooms, which means prized and are subject to intensive morphological characters may that they form mutualistic rela- harvests. Most species within the later be found to support species tionships with the roots of green genus Cantharellus have vibrantly

OMPHALINA 13 coloured fruiting bodies ranging elles despite their bright coloura- on the East Coast become infested from red to yellow hues, which tion (Lamaison and Polese 2005). with slugs and maggots (fl y lar- may fade with age. Golden chan- Within Newfoundland, chanter- vae). Newfoundland mushroomers terelles are orange to yolk yellow elles are typically found during have noticed this discrepancy for and have a pleasant odour that the late summer in mossy Balsam some time, without any explana- many describe as fruity, resem- Fir forests. tion. This question was brought to bling either apricots or plums Golden chanterelles the world the attention of the senior author (Lamaison and Polese 2005). over are renowned for having very (RGT) by Andrus Voitk during the They are distributed throughout few pesky insects or slugs con- summer of 2009. the temperate zone, growing in as- suming their fruiting bodies de- The fi rst author (CV) took on the sociation with both deciduous and spite having a relatively long fruit- preliminary investigation of this coniferous trees. The combination ing period. Of local interest is the question, supervised by RGT at of growing in shady, moist places question, why the mushrooms on the University of Western Ontario. and commonly fruiting in moss or the West Coast of Newfoundland Goals of the project were to deter- forest litter may conceal chanter- appear untouched whereas those mine whether the anecdotal obser-

Figure 1. Chanterelles from western New- and from eastern Newfoundland showing foundland showing minimal damage (left) substantial damage (right). 14 OMPHALINA vations are real, and if so, whether aged than those from the East our fi ndings encourage investigat- the difference seems to be due to (Fig. 1). ing the genetic relationship of the factors inherent in the mushrooms. The 100 undamaged mushrooms two populations, we decided to If that were the case, there would from each Coast were tagged us- make a second trip to collect tis- be reason to determine whether ing random numbering to prevent sue for DNA studies, and use the East and West Coast chanterelles observer bias, and laid out on opportunity to quantify the degree differ genetically. moss under a Balsam Fir canopy of damage in each population in A preliminary study, based in Sal- similar to where chanterelles are situ. monier Nature Park on the Avalon naturally found (Fig. 2). After 60 Five patches from the Avalon and Peninsula, was done in August, hours all mushrooms were col- fi ve from Western Newfoundland 2009. With help of the Park lected and scored based on their were assessed. Each patch was at Manager, CV collected samples damage (from 0 for undamaged least 100m distant from the closest of chanterelle populations from to 4 for completely damaged). other patch and contained at least the East Coast, while West Coast Most mushrooms in both groups 40 fruiting bodies. Without har- chanterelles were picked simul- had suffered additional damage. vesting or selecting, 40 chanter- taneously and delivered to Sal- Although there was a difference in elles from each patch were scored monier. Collections were done in damage class distribution between based on their damage (from 0 for two parts: a random collection to the two Coasts (Figure 3), using undamaged to 4 for completely provide a “representative” sample the Kolmogorov-Smirnoff test damaged). The protocol of scoring of the population from each Coast, this difference turned out not to be and collecting was repeated for and 100 undamaged specimens statistically signifi cant (p=0.062). all 10 patches. Statistical analyses (damage class 0) from each coast. Although we confi rmed to our of the data showed that both the It was immediately apparent on own satisfaction that there was mean damage and the frequency visual inspection that the ran- an “obvious” difference in the distribution of damage scores domly collected mushrooms from amount of invertebrate damage differed signifi cantly on each the West Coast appeared larger, between the two populations, we Coast (Fig 4). The chanterelles of brighter and markedly less dam- had not quantifi ed this. Because the East Coast did, indeed, suffer signifi cantly greater invertebrate damage than did those from the West Coast, confi rming our own previous unmeasured observa- tions, as well as those of New- foundland mushroomers. Thus, both initial visual inspection and subsequent damage studies confi rmed the anecdotal observa- tions that West Coast chanterelles suffer less invertebrate damage than East Coast chanterelles. Exposing undamaged mushrooms from both Coasts to the same damage revealed a difference in new damage, which on testing had a 6.2% probability that the dif- ference was due to chance alone. Such difference is traditionally Figure 2. Chanterelles from eastern and western Newfound- considered not signifi cant, increas- land were individually numbered and laid out together in a ing the likelihood that DNA stud- moss carpet under balsam fi r for 2½ days. ies will show both populations to OMPHALINA 15 beb conspecifi c. However, the prob- abilitya that the difference might be dued to other factors such as inherent differencesd in the mushrooms was still a respectable 93.8%, leaving roomr for the possibility of genetic differenced in the two populations. WeW believe that this possibility war- rantsr further scrutiny. FollowingF scoring, small samples ofo cap tissue were collected from everye other fruiting body and stored ini CTAB buffer. These samples can beb used to characterize various re- gionsg of DNA (molecular sequenc- ing)i to determine whether there is FigureFi 33. BBar graphh showingh i ththe numberb off undamagedd d a genetic explanation for statistical chanterelles from eastern and western Newfoundland in differences in the fi eld observa- each damage class after being exposed in the woods tions. When done, this study will for 2½ days (2009). Difference in distribution of damage form part of another report. recorded on East and West Coast chanterelles between damage classes was not statistically signifi cant using the Like other living organisms, chan- Kolmogorov-Smirnoff (KS) test (D= 0.01856, p = 0.062). How- terelles and the animals that eat ever, the signifi cance value is close and there seems to be them are infl uenced by both abiotic a perceptible qualitative difference (See Fig. 1 and text). and biotic environmental factors. Some of the most infl uential envi- ronmentalr factors for fungi that live ini the soil include: parent materi- alsa (the rocks on which soils are formed),f the plant community (un- derd which soils develop), organic content,c and moisture. These and thet climate, or daily and seasonal patternsp of temperature, precipita- tiont and humidity, are likely quite differentd between the West and East CoastC of the island. All this may resultr in different physical traits (or perhaps different species) in chanterellesc and different numbers anda species of predators—slugs and mushroomm fl ies. FigureFi 44. BBar graphh showingh i ththe numberb off chanterellesh t ll Researchers in California are cur- from eastern and western Newfoundland sampled in situ rently examining species bound- in each damage class (2010). Difference in distribution of aries within their local species damage recorded on East and West Coast chanterelles of Cantharellus, with results that between damage classes was statistically signifi cant using may have relevance to this proj- the KS test (D= 0.3350, p = 0.000); there are more undam- ect. Morphological and colour aged and far fewer heavily damaged chanterelles from data were taken from numerous western Newfoundland. C. cibarius fruiting bodies within 16 OMPHALINA a California woodland. In combination with DNA California, USA. Economic Botany 62(3): 376-391. analysis (restriction fragment length polymorphisms) Hawksworth, D. L. 1991. The fungal dimension of it was determined that three distinct species were biodiversity: magnitude, signifi cance, and conserva- present, two of which had been identifi ed incorrectly tion. Mycological Research 95:641-655. as C. cibarius (Arora and Dunham 2008). Once the species were sorted out, ecological clues specifi c to Lamaison, J., and Polese, J. 2005. The great encyclo- each species, including host association and forest pedia of mushrooms. Konemann Publishing, Konig- climate, were described to help future mycologists swinter, Germany. identify different species without DNA protocols Mui, D., Feibelman, T., and Bennett, J.W. 1998. A (Arora and Dunham 2008). preliminary study of the carotenoids of some North Thus, the question remains: are there genetic differ- American species of Cantharellus. International ences in the chanterelles from eastern and western Journal of Plant Sciences 159(2): 244-248. Newfoundland that result in varied predation upon Pilz, D., Molina, R., and Liegel, L. 1998. Biological them or is the difference in the environmental fac- productivity of chanterelle mushrooms in and near tors that infl uence the interactions between the the Olympic Peninsula biosphere reserve. Spec. Rep. mushrooms and their predators? Mushroom samples N. 9. WA: U.S.A. The Biological, Socioeconomic, from both populations are now available for genetic and Managerial Aspects of Chanterelle Mushroom comparisons at the species and individual levels. The Harvesting. results will determine whether the East and West Coast populations are the same or different species, Pilz, D., Norvell, L., Danell, E., and Molina, R. and whether the populations are interbreeding and 2003. Ecology and management of commercially identical, or separate and genetically distinct. Should harvested chanterelle mushrooms. Gen. Tech. Rep. the results show that the two populations are distinct, Portland, OR: U.S. Department of Agriculture, For- this could explanation their difference in preda- est Service, Pacifi c Northwest Research Station. tion, and future research could look at the chemical make-up of both populations for an explanation. Alternatively, if they are all one species and geneti- cally identical populations, it opens the door for future research to determine the cause for the varying degree of mycophagy at different sample sites. Acknowledgements We thank Andrus Voitk for the suggestion and outline of this project, for collection of chanterelles from the West Coast in 2009 and for assistance with locating chanter- elles in Western Newfoundland in 2010; John Jenniex for transport of chanterelles from Corner Brook to Salmonier, where CV was working in 2009; and Ralph Jarvis, Man- ager of Salmonier Nature Park, and the Salmonier Nature Park for truly generous accommodation and logistic sup- port in 2009 and for help in locating chanterelle patches in the Avalon in 2009 and 2010. An especial thanks also to Derek Vilneff, the fi rst author’s Dad, for assistance with location of chanterelle patches, acting as scribe and for general support during the second Newfoundland fi eld trip. References Cited Arora, D., and Dunham, S.M. 2008. A new, com- mercially valuable chanterelle species, Cantharel- lus californicus sp. nov., associated with live oak in

OMPHALINA 17 OUR ALDERS Alnus incana ssp. rugosa, SPECKLED ALDER Alnus viridis ssp. crispa, MOUNTAIN ALDER

Photo: Maria Voitk Photo: Maria Voitk

Photo: Maria Voitk Photo: Andrus Voitk

female smaller, without stalks; new exposed; larger, with stalks; new covered by bud; not suscep- cones susceptible to Taphrina robinsoniana tible to alder tongue gall (T. robinsoniana) male dependent from outset, more advanced initially erect, more closed (bloom later, when catkins (bloom earlier, before leaves open) leaves open) nutlet narrow wings wide wings buds blunt tips, 2 scales pointed tips, 3-4 scales branches lenticles more evident lenticles less evident size larger smaller habitat lowlands higher, even on mountain heath frequency commoner in sheltered valleys on throughout Island and Labrador Island and central Labrador

18 OMPHALINA OOURUR PPARTNERARTNER OORGANIZATIONSRGANIZATIONS

People of Newfoundland and Labrador, through Department of Environment and Conservation Parks and Natural Areas Division Wildlife Division Department of Natural Resources Center for Forest Science and Innovation Department of Innovation, Trade & Rural Development Parks Canada Terra Nova National Park Gros Morne National Park Great Northern Peninsula Forest Network Model Forest of Newfoundland and Labrador Nordic Economic Development Corporation RED Ochre Develpoment Board Sir Wilfred Grenfell College Gros Morne Cooperating Association Memorial University Quidi Vidi Brewing Company Rodrigues Winery

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OMPHALINA LICHENS added this year!

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