Toadstools, mushrooms, fungi, edible and poisonous; one thousand American fungi

INTRODUCTION

7425 words  |  Chapter 35

America is without a text-book of the American species of Fungi, among which the edible and poisonous varieties are found. Many excellent but expensive foreign volumes describe species common to both continents, and several special but widely scattered monographs have been published here. The need of the mycologist, mycophagist and amateur toadstool student is a book giving the genus, names and descriptions of the prominent American toadstools whose edibility has been tested, or whose poisonous qualities have been discovered. The absence of such a book, and the universal and rapidly-growing interest all over the United States in edible fungi, have led to the publication of the present work, which includes every species known to be esculent in North America. As a precautionary measure, full explications of all those known or suspected to be poisonous are included. Many species found in this country only have been described and named by various authors, from the time of Schweinitz (1822) to the present day. These have been published in the botanical magazines and in the papers of scientific societies and colleges. The greater number have as author Professor Charles H. Peck, New York State Botanist, who has contributed an annual report each year from 1868. These appear in the reports of the State Museum of New York, and coming from the pen of our ablest mycologist are of great value to everyone interested in the study. The classifications and (in many instances) modified descriptions by such an eminent authority upon fungoid growth should therefore be the guides to American forms, that the confusion created by numerous descriptions of the same fungus by different observers may be avoided. Professor N.L. Britton, editor of the Torrey Botanical Club, has courteously given permission to use the descriptions of new species given in its instructive Bulletins. Professor A.P. Morgan and Laura V. Morgan, with equal courtesy, grant the use of text and illustrations contained in the most complete monograph published upon the Lycoperdaceæ (puff-balls, etc.) of America. While the scientific classifications and descriptions have been strictly followed, the language has been simplified—with no sacrifice of scientific accuracy—that this volume may be fully adapted to popular use. Professor Peck has given his valuable assistance in the identification of many species, all that were difficult or obscure having been submitted to him, and the writer is deeply indebted to him for many and long-continued courtesies, aiding in study and in the preparation of this work. Several new species have been found by the writer, the greater part of excellent food value. He preferred that these should be named, described and placed in their proper genus and section by Professor Peck, believing it to be best for the discoverers of new species to defer to one whose vast experience enables him to name and classify in accordance with the demands of American species. Where a species is vouched for as edible, it has been personally tested by the author and his willing undertasters up to eating full meals of it, or at least beyond all doubt as to its safety. Where others have eaten species which he has not had the opportunity to test, their names and opinions are given. When species heretofore under the ban of suspicion are in this volume, for the first time, announced to be edible (there are many of them), personal tests have not been considered sufficient, as idiosyncrasy might have affected the results. Others, at the writer’s request, have eaten of the species until their innocence was fully established. In some cases, where the reputation of the fungi eaten was especially bad, scientists of note have made elaborate and exhaustive physiological tests of their substances, and in every instance confirmed the human testing. While species which contain deadly poisons are few, their individuals are produced in great number. Nicety in distinguishing their botanic variance from edible species closely resembling them is necessary. No charm will detect the poison. Eating toadstools before their certain identification as belonging to edible species, is neither bravery nor common sense. The amateur should go slow. The question often asked is: By what rule do you distinguish between edible and poisonous mushrooms? The answer usually surprises the questioner—there is no general rule. All such rules which have been given are false and unreliable. The quality of each was learned, one at a time. Sweet and sour apples alike grow on large and small trees, may be red or green, large or small, oblong or globular, and no visible appearance gives the least clue to the quality. In a few genera certain rules may be applied, as in Clavaria--all not bitter or tough are edible. But such generalizations are each limited to its own genus. The toadstools containing deadly poisons are thought to be confined to one genus of the gilled kind—Amanita, and to Helvella esculenta, now Gyromitra esculenta, to which are charged fatal results. The poisonous qualities of Gyromitra esculenta are not proven. Recent testings of this species prove it to be harmless and of good quality. By far the greater number of species contained in Amanita are notable for their tender substance and delicious flavor. By their stately beauty and unusual attractiveness both the poisonous and harmless kinds are seductive. _Any toadstool with white or lemon-yellow gills, casting white spores when laid—gills downward—upon a sheet of paper, having remnants of a fugitive skin in the shape of scabs or warts upon the upper surface of its cap, with a veil or ring, or remnants or stains of one, having at the base of its stem—in the ground—a loose, skin-like sheath surrounding it, or remnants of one, should never be eaten until the collector is thoroughly conversant with the technicalities of every such species, or has been taught by one whose authority is well known, that it is a harmless species._ This rule purposely includes the renowned Amanita Cæsaria, everywhere written as luscious. I regard it as the most dangerous of toadstools, because of its close resemblance to its sister plant—the Amanita muscaria—which is deadly. In the description of these species, other forcible reasons are given. Another deadly species—the Amanita phalloides—is frequently mistaken by the inexperienced for the common mushroom. Safety lies in the strict observance of two rules: Never eat a toadstool found in the woods or shady places, believing it to be the common mushroom. Never eat a white- or yellow-gilled toadstool in the same belief. The common mushroom does not grow in the woods, and its gills are at first pink, then purplish-brown or black. If through carelessness, or by accident, a poisonous Amanita has been eaten, and sickness results, take an emetic at once, and send for a physician with instructions to bring hypodermic syringe and atropine sulphate. The dose is 1⁄180 of a grain, and doses should be continued heroically until the 1⁄20 of a grain is administered, or until, in the physician’s opinion, a proper quantity has been injected. Where the victim is critically ill the 1⁄20 of a grain may be administered. In every case of toadstool poisoning, the physician must be guided by the symptoms exhibited. Professor W.S. Carter, by numerous exhaustive trials upon animals, has proved that atropine, while valuable as against the _first_, is not an antidote for the _late_ effects of the greater toadstool poisons. (See his chapter on toadstool poisons, especially prepared for this work.) There are other species which contain minor poisons producing very undesirable effects. These are soon remedied by taking an emetic, then one or two doses of whisky and sweet oil; or vinegar may be substituted for the whisky. A few species of fungi are innocuous to the majority of persons and harmful to a few. So it is with many common foods—strawberries, apples, tomatoes, celery, even potatoes. The beginner at toadstool eating usually expects commendation for bravery, and fearfully watches for hours the coming of something dreadful. Indigestion from any other cause is always laid to the traditionary enemy, fright ensues, a physician is called, the scare spreads, and a pestilential story of “Severe Poisoning by Toadstools,” gets into the newspapers. The writer has traced many such publications to imprudences in eating, with which toadstools had nothing to do. The authoritative analysis of several common food species by Lafayette B. Mendel, of Sheffield Laboratory of Physiological Chemistry, Yale University, is given, and will correct the popular error about the great nutritive value of fungi, arising from previous erroneous analyses. While species are reported as found in certain localities, it by no means follows that their growth is confined to these places. A species reported as found in the Adirondack mountains, unless belonging to the few peculiar to northern regions and high altitudes, is reasonably sure to be more plentiful in a like habitat south and west of them. South it will appear earlier and its season last longer. Size is largely dependent upon latitude and may vary greatly in the same group. Temperature, moisture, favorable nourishment are important factors in growth. Each species has its favorite habitat, and will thrive best upon it. There are few things under the sun upon which fungi do not grow. Their mission is particularly directed toward converting decaying matter, or matter which has accomplished its work in one direction, into usefulness in another. They are the wood-choppers, stewards, caterers of the forest, converters in the fields and chemists everywhere. They can not assimilate inorganic matter because of the absence of chlorophyl in their composition, but in organic matter they are omnivorous. When they feed on dead substances they are called saprophytes; when their support is derived from living tissues, parasites. Scores of species of fungi were found in the forests, ravines and clearings of the West Virginia mountains from 1881 to 1885 inclusive, and eaten by the writer years before he had the opportunity to learn their names from books or obtain the friendly assistance of experts in identifying them. He knew the individuals without knowing their names, as one knows the bird song and plumage before formal introduction to the pretty creatures that charm him. After he was able to get European publications upon the subject, and by their aid trace the species he had eaten to their names, descriptions and qualities, he was surprised to read that many of them were warned against as deadly. As informed by these books, he properly ought to have died several times. It soon became evident that authors had followed one another in condemning species, some because they bore brilliant hues, others because they were unpleasant when raw (just as is a potato), rather than investigate their qualities by testing them. Here was a realm of food-giving plants almost entirely unexplored. The writer determined to explore it. Instead of the one hundred and eleven species then recorded by the late Doctor Curtis as edible, my number of edible species now exceeds his by over six hundred.[A] Footnote A: This book contains one hundred and fifty pages more than were originally estimated and promised to the subscribers. That all known edible and poisonous species might be fully described and published within one volume, the author was compelled to cut fifty thousand words from his manuscript. The localities from which species have been reported and the names of the reporters have been taken out, excepting where it was desirable to show that foreign species have been found in the United States, and where tested species have been found by the author. The principal cut has been from the notes of the author and of enlarged descriptions. Let us clear away the rubbish and superstition that have so long obscured the straight path to a knowledge of edible toadstools. Let us bear in mind that a mushroom is a toadstool and a toadstool is a mushroom—the terms are interchangeable. If toads ever occupied the one-legged seat assigned them from time immemorial, they have learned in this enlightened age that the ground is much more reliable, and so squat upon it, except when exercising their constitutional right to hop. Snails, slugs, insects of many kinds, mice, squirrels and rabbits prey upon good and bad, each to its liking, notwithstanding oft-repeated assertion that snails and slugs infect noxious varieties only, or that animals select the innocuous only. We are warned against those which grow in the dark or damp; the mushroom of commerce is grown by the ton in the subterranean quarries of France, and everywhere in vaults and cellars for domestic use. The valued truffle never sees the light until it is taken from darkness to be eaten, and other varieties of the best prefer seclusion. The wiseacres tell us that they must have equal gills, must not have thin tops, must not turn yellow when sprinkled with salt, must not blacken a silver spoon, that we must not eat of those changing color when cut or broken, of those exuding milk, or those which are acrid, hot, or bitter, and give many other specifics for determining the good from the bad. These tests are all worse than worthless, for if confidence is placed in them they will not only lead us away from esculent and excellent varieties but directly into eating venomous ones. There are whole genera of fungi which are innocuous; but in the Family of Agaricaceæ, where the greatest variety of the edible and poisonous species are found, it is necessary to master one by one the details of their construction and learn to distinguish their differences as one does those of the many kinds of roses, or pinks, or hundreds of bright-faced pansies, and in the mastery of them lies the only charm that will safely guide. Carefully remove the first toadstool found from whatever it is growing upon, and with it a portion of that from which it springs. If it is the earth a curious white network is discernible, fine as the delicate spinning of the spider, spreading its meshes throughout the mass. It will often remind of miniature vines climbing over miniature lattices. This is the mycelium from which the toadstool grew. In many instances it penetrates the earth to a considerable depth, and takes possession of large territory. It is often seen as the gardener turns up the soil or its fertilizer, and is perhaps taken for a mold. If the specimen is gathered from mat of wood leaves, the same white vine is observable slipping in between its layers. If taken from a tree, the decaying wood is traversed by it. From wherever a toadstool is plucked, it is removed from its mycelium. This mycelium is but a thread-like mass of simple cells joined together at their ends and interlacing in a way a thousand-fold more intricate than a Chinese puzzle. Nothing in its structure indicates what its special product will be. The fungus which is plucked from it is in all its parts simply a mass of these threads—cells strung together, interlacing and ramifying. When the season favors, the mycelium—which has, winter and summer and from year to year, lived its hidden life, or has sprung from a germinating spore—develops a number of its cells in a minute knob, small as a pin head. At this point the cells make special growth efforts to bring themselves within the favoring influences of heat and moisture; this tiny knob labors within itself, producing cell after cell, which takes shape and function for the future toadstool. As it rapidly enlarges it pushes its way toward the surface of the ground, becomes more or less egg-shaped in this stage of its growth, and if cut in half longitudinally and examined, it will display what it is going to be when it grows up. Suppose that it belongs to the first of the two great sections into which fungi are divided under the classification of Fries, who modified that of Persoon. The first has the spores—which represent the seeds in plants—naked, and it is called sporifera or spore-bearing. The second, which has the spores enclosed in cells or cysts, is called sporidifera or sporidia-bearing. If the cap of a gill-bearing toadstool be laid, gills downward, on a watch crystal or piece of white paper for a few hours, or, in some instances, a few minutes, a complete representation of the spaces between the gills will be found deposited as an impalpable powder. These are the spores. The first section is divided into four cohorts. Two of these have hymeniums or spore-bearing surfaces more or less expanded. These are Hymenomycetes and Gastromycetes. In Hymenomycetes the hymenium is always exposed in matured plants, as with the common mushroom. When young, some plants are covered with a membrane. In Gastromycetes the hymenium is always concealed within a covering which bursts at maturity, as with the Lycoperdons or puff-balls. Cohort Coniomycetes includes rusts, smuts, etc., formed for the most part on living plants. There is no hymenium present. The spores are produced on the ends of inconspicuous threads, free or enclosed in a bottle-like receptacle called a perithecium. Cohort Hypomycetes is composed of those species of fungi commonly called molds. The spores are produced, naked, from the ends of inconspicuous threads. In the Agaricaceæ—the first family in Hymenomycetes—the young plant is completely enveloped. (Plate III, fig. B, p. 2.) Its head is as yet undefined and its body may be classed as dumpy, but shut in and protected are a great quantity of knife-like plaits (Plate III, fig. C., p. 2), on the outer surface of which, when the plant matures, will be borne its spores. It therefore belongs to the Hymenomycetes, and to the Family Agaricaceæ—gill-bearing. If the ground becomes moist or there comes a heavy dew or a rain, the young plant, closely compacted and very solid, which has been under the surface for many days waiting its chance to get forth to light and air, rapidly swells, breaks through the moistened earth, goes rapidly to cell-making, ruptures its outside covering, the head expands and in so doing spreads out its gills or hymenium. (Plate III, figs. C, D, E, p. 2.) The membrane which covered the gills either vanishes, or gathers round the stem in the form of a ring or circular apron, or it may partially adhere to the edges of the top, cap or pileus and hang as a fringe from it; the stem elongates; the whole plant assumes the colors of its species and in a few hours or days at most it stands forth, a marvel of beauty, structure and workmanship. But little is known of how these spores reproduce themselves. The microscope fails to completely penetrate the mystery. A whole fungus is but a mass of cells, the spore is but one of them. That these simple cells do produce after their kind there is no doubt, but so minute is the germ and hidden its methods that science has failed to solve them. The first Family of Hymenomycetes is Agaricaceæ. Its members always have gills or modifications of them. In some cases—notably in Cantharellus—the gills have the appearance of smooth, raised veins over which is the spore-bearing surface. The hymenium is but an extension of the fibers of the cap, folded up like the plaits and flutings of ruffles, and laundered with exquisite neatness. If it is carefully detached and spread out like a fan it will cover a large surface, many times the size of the cap from which it has been taken, and will show that what is a consumption of material in dress ornamentation is utilized by economical Dame Nature to increase the spore-bearing surface within a small space and for purely business purposes—spore-bearing. The color of these spores has much to do with the classification. The microscope with high light reveals the delicate shades of their coloring, but the main colors are readily distinguished by the naked eye when the spores are collected in a mass on glass or paper. The Polyporaceæ have in place of gills closely packed tubes on the inside of which is the spore-bearing surface; each has a mouth from which to eject the spores. The Hydnaceæ bear their spores from spines or spicules of various length protruding from the external surface of the cap. Sometimes the spines mock in miniature the stalactites of the Caverns of Luray, sometimes the shaggy mane of the lion, sometimes flowing locks of hair. These three Families belong to the Cohort Hymenomycetes, having their spore-bearing surface exposed early in life by the rupture of the universal veil. The Lycoperdons or Puff-balls have the hymenium enclosed within an outer case, just as the apple with its seeds is enclosed for a dumpling. When the spores are matured the sack is ruptured and they escape as the dusty powder so well known to all. The Puff-ball belongs to the Cohort Gastromycetes, because its spores are protected within the hymenium until they are matured. There are other Families which contain edible species. The Clavariaceæ—branched or club-shaped—often found in as beautiful forms as delight us in coral, includes a few. In Ascomycetes, of the covered spore division Sporidifera, there are several species which are excellent, and as they dry readily are much valued for flavoring purposes when winter forbids the growth of outdoor fungi. Of these the Morell has preference. The cap is covered with sinuosities and pits which bear the spores. There are several varieties of the Morell in the United States. They are known among the country people who cook and pickle them, as Honey-comb mushrooms. The Tuberaceæ are subterranean fungi. The common truffle so much prized by epicures is a good representative. It is found a foot or more under the surface of the earth, and of such value is it that in some countries pigs are trained to hunt it from its hiding place. It is one of the few foreign growths apparently not taking kindly to our country. Efforts have been made to import and cultivate it, but without success. It is possible, even probable, that it may yet be found in America by assiduous search. I have said that there is but one way to distinguish the edible from the non-edible fungi; that is by mastering the characteristics of each species one by one. There are signs which point to the evil and those which point to the good, but they must be used as signals, not directors. A nauseous, fetid odor should condemn a species as non-edible at once. Those having the flavor of flour or fresh meal are generally accepted as worthy of trial. Slimy, water-soaked, partially decomposed plants, or those impressing one as unpleasant in any way, should never find their place upon the table. Do not eat of any toadstool, unknown to the collector, beyond the careful and systematic testing required to determine whether it is edible or not. A few species have a serious charge remaining against them; that of partiality. They unmistakably signify with whom they will agree and with whom they will not. These are notably Clitocybe illudens, Lepiota Morgani, Panæolus papilionaceus, all specialized in their places in the text. Other species have hereditary taints upon their reputations. Most, if not all of them have stood present tests and relieved themselves of suspicion. But, alas that it should be so! The stigma must rest upon them for yet a while and until their defenders are so numerous that their purity, without a smirch, is popularly proclaimed. Wherever wood grows and decays as it will, Polyporus, Panus, Lenzites, Schizophyllum and kindred genera stand prominently forth in countless numbers. The great majority of them are inedible because of their woody substance. A few are valued as food. Very many of them yield their soluble matter and flavor when boiled, and in this way make excellent soups and gravies, just as flax-seed and the bark of the slippery elm yield succulent matter. These, however, are not, with a few exceptions, mentioned in this book. Numbers of Clavarieæ and Hydneæ are in the same category. M.C. Cooke tersely says: “Fruits that are not peaches or apricots may be very good plums.” In the introductions to genera their attributes are given; under “Instructions to Students” every guide to identification and selection will be found. A Glossary, containing the botanic terms used in this book and, it is believed, all other terms used by mycologists in describing fungi, follows the descriptive text. It is strongly advised that it be carefully studied. The roots and derivatives of the botanic terms are fully and carefully given by Dr. John W. Harshberger, professor of botany, University of Pennsylvania, to whom the author is specially indebted. The excellent Glossary published by Dr. Edwin A. Daniels, Boston, has furnished many comprehensive definitions. It is the property of the Boston Mycological Club, and can be obtained from its secretary for twenty-five cents. The determination of the proper accentuation of the generic and specific terms has been in many cases a difficult task, and, in some cases, owing to the dubious origin of the words in question, there is certainly room for difference of opinion. This task has been kindly and conscientiously performed by Prof. M.W. Easton, professor of Comparative and English Philology, University of Pennsylvania. Thanks are due to the Hon. Addison Brown, president of the Torrey Botanical Club, and Dr. Nathaniel L. Britton, professor of Botany in Columbia College, authors of “Illustrated Flora,” for the determination of the accentuation of non-classical words ending in _inus_. Three indexes are given: the first refers to the general contents, the second to the genera, the third to species and their genera, alphabetically arranged. Mrs. Emma P. Ewing and Mrs. Sarah T. Rorer have kindly furnished some of their recipes for the preparation of several varieties of toadstools. The best results of the author’s long experience in cooking toadstools are given in the chapter “Recipes for Cooking and Preparing for the Table,” together with others selected from many sources. The personal taste of the server must be guide to the choice. A child-friend of the writer, in telling him of her mother’s cook, said: “She’s a good cooker, but she has a bad temper.” A good “cooker” will soon learn how to best display the individual flavor of each species. And be it known that each species of toadstool has a flavor of its own. These flavors vary as much as among meats and vegetables. No one species can be taken as standard of excellence. The greatest care has been taken to secure illustrations correct in every botanic detail. With few exceptions the colored figures were drawn and painted by the writer. To obtain this important feature the requirements of art have frequently been sacrificed. An artist can make a picture of a toadstool; the mycologist must guide his brush or pencil in the making of a correct presentation. The happy combination of artist and mycologist occurs in Mr. Val. W. Starnes, Augusta, Ga., to whom this volume owes many of its illustrations. Mr. Frank D. Briscoe, widely known as an artist of rare ability, has arranged and painted in groups the studies made by the writer from typical plants, and added to the illustrations many excellent drawings of his own. The unfailing reliability of the sun has been masterfully used by Dr. J.R. Weist, ex-Secretary of the American Society of Surgeons, Richmond, Ind.; H.I. Miller, Superintendent Terre Haute and Indianapolis Railroad, Terre Haute, Ind., and Mr. Luther G. Harpel, Lebanon, Pa., in making the unexcelled photographs generously contributed by them. The author is most thankful to them and to Mr. C.G. Lloyd, Cincinnati, Ohio—a scientific gentleman devoting lavishly of his time and money to the spread of mycological knowledge—for the privilege of selecting from his extensive collection of realistic photographs those adaptable to the species described herein. The author’s thanks are gratefully given to the many who have by help and encouragement furthered his efforts in producing this, the first American text-book upon fungi. Space precludes the naming of the many, but the few named do not outrank them in their interest, help and the author’s appreciation: Miss Lydia M. Patchen, President of the Westfield, N.Y., Toadstool Club (the first in America); Mrs. E.C. Anthony, Thomas J. Collins, E.B. Sterling, Berry Benson, Melvil Dewey, New York State Librarian; Dr. J.E. Schadle, Prof. J.P. Arnold, University of Pennsylvania; Prof. W.S. Carter, University of Texas; Boston School of Natural History; Massachusetts Horticultural Society; Prof. Wm. G. Farlow, University of Harvard. Thus aided the author believes that his own conscientious, patient, loved labor in the study of edible and non-edible fungi and the production of this volume will be far-reaching in its one object—encouraging the study of toadstools. The time for writing a complete flora of the United States has not yet come; a large part of the country remains as yet unexplored by mycologists; new species are being constantly discovered in the districts best known. Every book on the subject must be necessarily incomplete. On the other hand, so far as concerns the known fungus-flora, there is imperative need of some guide to the student, which shall at least save him some part of the weary toil of hunting through the scattered literature in which alone, as things are at present, can be found the information he seeks. In this book I have tried to meet this need. It is not complete, but I have tried to so arrange the matter that the student can always decide whether the particular specimen in hand is or is not included, and, at least for all of our more conspicuous fungi, determine the family and genus. If the student can do so much, the task of finding the specific name, even when not included in this book, becomes very much simpler. So much for the more scientific aspect of my book. But I have also kept in constant view the needs of the large and constantly growing number of persons who have no aim further than to learn to know the principal toadstools seen in their walks, just as they wish to know the principal trees and the more conspicuous birds. For such as these, the difficulty of deciding whether or no a particular individual fungus is described in the brief (sketching) manuals hitherto accessible is even more formidable than with the special student of botany. Finally, I have kept in view throughout the work the needs of the mycophagists. They are not pot-hunters; they care much less for the physical pleasure of the appetite than for the close study of Nature that their inclination leads them into. Some day the delights of a mushroom hunt along lush pastures and rich woodlands will take the rank of the gentlest craft among those of hunting, and may perchance find its own Izaak Walton. AUTHOR’S AND PUBLISHER’S NOTE. It is the intention of the author and the publisher to keep this book up to date. Recognizing that future testing will prove many more species of toadstools to be edible, and that scientists will have more exact knowledge of toadstool poisons and their antidotes, they announce that illustrated sheets publishing new edible species and current information upon fungi will be, from time to time, issued, conforming in shape and style to this volume and at an acceptable price. That the author and publishers may keep in touch with the owner of each volume, and be informed of new discoveries in species and of new experience, owners are requested to communicate their book numbers to Captain Charles McIlvaine, or the Bowen-Merrill Co., Indianapolis, Ind. INSTRUCTIONS TO STUDENTS To catch fish one must know more than the fish; to find toadstools one must know their season and habitats. They are propagated by their spores and from their mycelium—that web-like growth which is the result of spore germination. The spores of ground-growing kinds, when shed upon the ground, are washed by rains along the natural drainage; therefore, when a specimen of one of these kinds is found, it is well to look up and down the natural water-shed, and follow it. Good reward will usually come of it. Few fungi are strictly solitary. Careful observation of the habitats of the various genera and species will enable the student to know what may and may not be expected in a particular locality, and will save many a hunt. When an unknown species is found, collect it carefully, examine it closely, note all its features. Determine to which division of fungi it belongs. If to the gilled family (Agaricaceæ) obtain the color of the spores (see directions). Look at the chart “Tabular View of Genera of Agaricaceæ,” Plate I, p. 2 (after W.G. Smith, but enlarged, redrawn and emended). If the spores are white, it belongs to one of the genera in the first column—Leucosporæ; if pink, to one in the second column, and so on. It is often difficult to determine the spore color, because spores vary through many shades of the typical color. What are called white spores may be creamy, dirty, yellowish or brownish-white; pink spores will vary from almost white to reddish and salmon-color; brown spores from light-ochraceous through cinnamon to rusty; purple spores from dark-violet to purplish-black. Experience alone will enable the student to decide which color series is present. The Genera Charts, preceding the five different color series, show typical spore colors only. Again, authors describing the species frequently fail to see colors alike; if they do, their names for them frequently vary. For instance, few persons will agree upon a color expressed as “livid.” The color system principally used by botanists is Saccardo’s “Chromotaxia,” costing fifty cents. It is decidedly inadequate. Ridgway’s “Nomenclature of Colors for Naturalists” is far better, but it is out of print and obtainable only at the principal libraries. “The Prang Standard of Color” is the most complete ever issued, but it is inapplicable to existing descriptions of fungi. [Sidenote: Make and Preserve Spore Prints.] Take, to print upon, sheets of Bristol-board or any stiff, hard-surfaced white paper 6×9 inches or larger. Cut a round hole, four inches in diameter, in one of the sheets. Use this as a stencil. Lay it upon a print-sheet and where the opening occurs, paint with a weak solution of gum arabic—⅛ oz. (one teaspoonful) to one pint of water. Dry the print-sheets. When a spore-print is to be taken, select a fully-grown specimen, remove the stem, place the spore-bearing surface upon the gummed paper, cover tightly with an inverted bowl or saucer, and allow to stand undisturbed for eight or ten hours. The moisture in the plant will soften the gummed surface; the spores will be shed and will adhere to it, making a perfect, permanent print. When the print is plain, remove the specimen carefully and dry the print. Number the print-cards to correspond with the number of the specimen in the “Record of Fungi,” and place them in a box or cover. Some genera shed their spores sooner and more freely than others. A surplus of spores is objectionable. In order to know when a print is plainly made, without disturbing the process, have either a specimen of the same age, or a piece of the one under the bowl, on another piece of gummed paper, covered in like manner. This can be examined and will give the desired information. A little experience will enable the student to obtain good and lasting prints. The large black figures on some calendars, if cut with the white about them, are convenient as trial sheets for spore-printing. Lay the specimen partly on the white, partly on the black. If the spores are light, they show best on black ground, and if colored, they show best on the light. Spore measurements, as given by different observers, vary to such a degree that they are of little value, excepting as determining a few species, but spore shapes and characteristics are of use as a last resort, in accurate determinations. A microscope of considerable power is needed. A metrical scale and table of measures is here given, that the student may have a present guide to such measurements as are given in mycological publications. Measures [Illustration: Decimetre.] 1 Metre 39.371 Inches 1 Decimetre 3.9371 ” 1 Centimetre (C M.) .39371 ” 1 Millimetre (M.M.) .039371 ” 1 Micron (µ) 1 Millionth of a 1⁄25400 of an Inch. Metre 1 Line (″) 1⁄12 of an Inch 1 Gramme 15.433 Troy Grains 1 Decigramme 1.543 ” ” 1 Centigramme .1543 ” ” 1 Milligramme .01543 ” ” [Sidenote: Use of Charts of Genera.] The spore color being determined, turn to the Genera Chart, showing spores of like color. Ascertain from the specimen whether or not its cap or hymenophore is distinct or easily separable from the stem and the gills free from the stem; if they are, it may belong to one of the genera in the upper row of figures; if the cap is not easily separable nor the gills free, look at the shape of the gills, and find on the chart a corresponding gill-shape. It is probable that the genus can thus be determined. Then turn to this genus in the text, read the heading, look over the “Analysis of Tribes,” go to the tribe nearest in designating the properties of the specimen; comparing the specimen with the descriptions of species given thereunder, will probably enable the seeker to decide upon its name. It should be remembered that the descriptions in the text are of the specimen or specimens which the author of the species saw. What the author says fixes the type of the species. Specimens of the species may, and very frequently do, vary greatly from the type. If the first attempt to fix the genus is not satisfactory, try again, and keep on trying until reasonably sure. The amateur will find, however good an opinion may exist in his mind of the stock of patience on hand, that the territory of patience has just been reached. [Sidenote: Making and Preserving Notes.] An excellent blank form for “Collectors’ Notes” is published by the Boston Mycological Club, at one cent. It is desirable that there should be uniformity in collectors’ notes, and that they should be as full as possible. A form of this, or a similar kind, should be filled in and kept, and should also be used when specimens are sent to an expert for identification. Such specimens should be fresh, wrapped separately in tissue paper, numbered, and _a few_ should be packed in a box that will _not crush in the mail_. The address of the sender should be upon the outside. The collector’s notes should be sent in a letter, with a postage stamp for reply enclosed. If the specimens have to go a great distance, they should be partially dried in a slow, open oven, or they will be a rotten mass when they reach their destination. [Sidenote: To Test Edibility of Species.] There is but one way by which to determine the edibility of a species. If it looks and smells inviting, and its species can not be determined, taste a very small piece. Do not swallow it. Note the effect on the tongue and mouth. But many species, delicious when cooked, are not inviting raw. Cook a small piece; do not season it. Taste again; if agreeable eat it (unless it is an Amanita). After several hours, no unpleasant effect arising, cook a larger piece, and increase the quantity until fully satisfied as to its qualities. Never vary from this system, no matter how much tempted. No possible danger can arise from adhering firmly to it. Recipes for preparing, cooking and serving are given in chapter on cooking. It is better for the student to first become familiar with the common species, one at a time, than to attempt tracing the rare or many. Worry, fatigue and uncertainty are plentiful in an indiscriminate gathering of fungi. One species a day, properly traced and named, means learning three hundred and sixty-five species a year. [Sidenote: The Glossary.] Unfamiliar terms will be encountered in the descriptive text. The Glossary defines them; and not only those in this book, but, it is believed, all those found in other books upon fungi. Where possible throughout the text, botanical terms have been anglicized. The meanings of those remaining unchanged should be memorized. It is quite as easy, and far better, to learn the botanical names of species and their characteristics, as to learn their common names; easier in fact, for the common names often vary with locality. The writer received a letter from an Alsatian living in St. Louis, telling him of favorite fungi he used to eat when in his own country. To all he gave local names, not one of which could be referred to the particular species meant. Success and pleasure in the study of fungi will attend the student who observes carefully and who systematically records that which is observed. ABBREVIATIONS OF THE NAMES OF AUTHORS OF SPECIES A. and S., Albertini and Schweinitz Arrh., Arrhenius B. or Bull., Bulliard Bad., Badham Bagl., Baglietto Bat. or Batsch, Batsch Batt., Battara Berk. or M.J.B., Berkeley Berk. and Br., Berkeley and Broome Bolt., Bolton Bon., Bonorden Boud., Boudier Boud. and Pat., Boudier and Patonillard Bref., Brefeld Bres., Bresadola Brig., Briganti Brond., Brondeau Brot., Brotero Cav. and Sech., Cavalier and Séchier C.B.P., Plowright Chev., Chevalier Cke., Cooke Cord., Corda Crn., Crouan Cum., Cumino Curt., Curtis D. and L., Durieu and Léveillé D.C., De Candolle De Guern., De Guernisac Desm., Desmazieres Dill., Dillenius Dittm., Dittmar Dun., Dunal Ehrb., Ehrenberg Ellis or J.B.E., J.B. Ellis Eng., English Botany Fayod, Fayod Fl. d., Flora danica Forq., Forquignon Fr., Elias Fries Fckl. or Fuck., Fuckel G. or Gill., Gillet G. and R., Gillet and Rounreguére God., Goddard Grév., Gréville H. and M., Harkness and Moore Hazs., Hazslinsky Hedw., Hedwig Hoffm., Hoffmann Holmsk., Holmskiold Huds., Hudson Huss., Mrs. T.J. Hussey Jacq., Jacquin Jungh., Junghuhn Kalchb., Kalchbrenner Karst., Karsten Klotzsch, Klotzsch K., Krombholz Lam., Lamark Lang., Langlois Lasch, Lasch Lenz, Lenz Let., Letell., Letellier Lév., Léveillé Leys., Leysser Lib., Libert Linn. or L., Linnæus Mart., Martius Mich., Micheli M.J.B., Berkeley Mont., Montagne Morg., Morgan Moug., Mougeot Müll., Müller Nees, Nees Osb., Osbeck Pat., Patouillard Paul., Paulet Pers., Persoon Pk., Peck Pol. or Poll., Pollini Q. or Quel., Quelet Rab., Rabenhorst Rav., Ravenel Relh., Relhan Retz., Retzius Riess, Riess Rost., Rostkovius Roz., Roze Roz. and Rich., Roze and Richon Sacc., Saccardo Saund. and Sm., Saunders and Smith Sch., Schaeff., Schaeffer Schr. or Schrad., Schrader Schroet., Schröter Schulz, Schulz Schum., Schumacher Schw., Schweinitz Scop., Scopoli Sec., Secretan Somm., Sommerfelt Sow., Sowerby Sw., Swartz T. or Tul., Tulasne Tod., Tode Tour., Tournefort Trat., Trattinik U. and E., Underwood and Earle Vent., Venturi Vill., Villars Vitt., Vittadini Wahl., Wahlenberg Wall., Wallroth Weinm., Weinmann Willd., Willdenow With., Withering W.P., Phillips W.G.S., Sm. or Worth. Sm, Worthington Smith Wulf., Wulfen NAMES OF THE PRINCIPAL REPORTERS OF AMERICAN SPECIES Alabama Lucien M. Underwood, F.S. Earle (U. and E.). California H.W. Harkness, Justin P. Moore (H. and M.), Wm. Phillips. Canada John Dearness. Connecticut —- Wright. Florida —- Calkins. Georgia Berry Benson, H.N. Starnes, Val W. Starnes. Illinois Frederick J. Brændle. Indiana H.I. Miller, Dr. J.R. Weist. Iowa Charles E. Bessey, T.H. Macbride. Kansas F.W. Cragin, Elam Bartholomew, W.A. Kellerman. Kentucky C.G. Lloyd, A.P. Morgan. Louisiana Rev. A.B. Langlois. Maryland Miss Mary E. Banning. Massachusetts Charles C. Frost, W.G. Farlow, James L. Bennett, Charles J. Sprague, Robert K. Macadam, Julius A. Palmer, Hollis Webster. Minnesota Asa Emory Johnson. Mississippi U.S. Geological Survey. Missouri William Trelease. Nebraska Charles E. Bessey, F.E. Clements, —-- Webber. New Brunswick A.C. Waghorne, James Fowler. New England Boston Mycological Club. New Jersey J.B. Ellis, Benjamin Everhart, E.B. Sterling, Charles McIlvaine. New York Charles H. Peck, George F. Atkinson, John Torrey. North Carolina Rev. M.A. Curtis, Rev. Lewis de Schweinitz, Charles McIlvaine. Nova Scotia Dr. John Somers. Ohio Charles G. Lloyd, A.P. Morgan, W.S. Sullivant. Oregon Dr. Harry Lane. Pennsylvania Dr. William Herbst, Rev. Lewis de Schweinitz, Charles McIlvaine, Philadelphia Mycological Center. Rhode Island James L. Bennett. South Carolina Dr. H.W. Ravenel. West Virginia Charles McIlvaine, L.W. Nuttall. Wisconsin W.F. Bundy, William Trelease. ------------------------------------------------------------------------ [Illustration] PLATE III. PROGRESSIVE GROWTH OF AGARICS. A. STERILE CELLS. B. BASIDIA. C. CYSTIDIA. FIGS. A. B. C. D. E. STAGES OF DEVELOPMENT OF AN AGARIC. F. GILLS SHEDDING SPORES. FIGS. A. SPORE-PRINT. G. SECTION OF GILL MAGNIFIED. ------------------------------------------------------------------------ [Illustration] PLATE IV. GILL SHAPES. FIG. 1. GILLS AS VEINS; INFUNDIBULIFORM.

Chapters

1. Chapter 1 2. Introduction xv 3. 6. Gyromitra esculenta 546 4. 3. strobiliformis 19 5. 7. prolifera (section) 126 6. 4. Amanita rubescens 21 7. 3. Lentinus lepideus 230 8. 6. humile 81 9. 11. infundibuliformis 100 10. 2. multiceps, var. 94 11. 4. fusipes 116 12. 7. niveus 153 13. 4. volemus 180 14. 7. puellaris 208 15. 5. brevipes 219 16. 2. cervinus var. 245 17. 5. prunulus (section) 255 18. 4. subsquarrosa 275 19. 5. armillatus 323 20. 5. campester 332 21. 5. rhodoxanthus (section) 394 22. 4. solidipes (section) 385 23. 3. castaneus 472 24. 5. crassipes 452 25. 4. pallidus 429 26. 4. scaber areolatus 461, 27. 5. edulis 445 28. 1. Boletus indecisus 468 29. 2. Polyporus sulphureus 485 30. 7. Trametes gibbosa 31. 9. Cantharellus lutescens 218 32. 3. Clavaria pistillaris (dark var.) 524 33. 3. formosa 520 34. 2. echinatum 568 35. INTRODUCTION 36. 8. GILLS EMARGINATE, ALSO ADNATE AND HAVING DECURRENT TOOTH. 37. 15. GILLS DECURRENT; CAP UMBILICATE. 38. 5. RING FIBRILLOSE. 39. 10. VOLVA FRIABLE, DISAPPEARING. 40. 2. AMANITA PHALLOIDES (WHITE 7 5. AMANITA FROSTIANA, 16 41. 3. AMANITA PHALLOIDES (BROWN 7 6. GYROMITRA ESCULENTA, 546 42. 2. AMANITA RUBESCENS AND 21 43. 3. AMANITA STROBILIFORMIS, 19 44. 18. Plate XII, fig. 4, p. 32.) =Pileus= about 4 in. broad, 45. 2. AMANITOPSIS VAGINATA, 29 6. MYCENA PROLIFERA, 126 46. 3. AMANITOPSIS NIVALIS, 29 7. MYCENA PROLIFERA 126 47. 4. AMANITOPSIS STRANGULATA, 30 48. 2. LEPIOTA NAUCINOIDES, 45 4. AMANITA RUBESCENS, 21 49. 1. Armillaria mellea, 55 3–4. Lentinus 230 50. 2. Armillaria mellea var. 56 51. 4. TRICHOLOMA TERREUM, 71 52. 4. CLITOCYBE 108 9. CLITOCYBE ODORA, 90 53. 6. CLITOCYBE MAXIMA 99 11. CLITOCYBE 100 54. 7. CLITOCYBE NEBULARIS, 85 55. 1. CLITOCYBE MULTICEPS, 95 2. CLITOCYBE MULTICEPS, 95 56. 2. COLLYBIA PLATYPHYLLA 114 4. COLLYBIA FUSIPES, 116 57. 1. HYGROPHORUS PRATENSIS (WHITE 5. HYGROPHORUS 58. 2. HYGROPHORUS PRATENSIS (COLORED 6. HYGROPHORUS VIRGINEUS, 59. 3. HYGROPHORUS PRATENSIS (AFTER 7. HYGROPHORUS NIVEUS, 60. 4. HYGROPHORUS MINIATUS, 159 61. 146. Plate XXXVIII, p. 147.) =Pileus= 1–2 in. and more broad, somewhat 62. 2. LACTARIUS INDIGO, 171 4. LACTARIUS VOLEMUS, 180 63. 4. RUSSULA SORDIDA, 190 64. 3. CRATERELLUS 508 65. 1. PLUTEUS CERVINUS, 243 2. PLUTEUS CERVINUS, 245 66. 2. CLITOPILUS ABORTIVUS 256 5. CLITOPILUS PRUNULUS 255 67. 3. CLITOPILUS ABORTIVUS 258 68. 7. Stem longer than the width of the zoneless C. albogriseus 69. 7. Stem shorter than the width of the commonly C. micropus 70. 11. Stems not cespitose, hollow C. Seymourianus 71. 1. _Pileus not hygrophanous._ 72. 2. _Pileus hygrophanous._ 73. 1. Spores angulated. C. depluens 74. 2. Pileus striatulate when C. Greigensis 75. 2. Pileus not striatulate C. byssisedus 76. 2. PHOLIOTA CAPERATA, 270 4. PHOLIOTA SUBSQUARROSA, 275 77. 1. CORTINARIUS 318 4. CORTINARIUS TURMALIS, 309 78. 2. CORTINARIUS VIOLACEUS, 314 5. CORTINARIUS 323 79. 3. CORTINARIUS OCHRACEUS, 319 80. 1892. In woods. September to frost. _McIlvaine._ 81. 2. AGARICUS SILVICOLA, 343 5. AGARICUS CAMPESTER 332 82. 3. AGARICUS PLACOMYCES, 345 83. 2. HYPHOLOMA PERPLEXUM, 354 4. GOMPHIDIUS RHODOXANTHUS, 394 84. 1. Stem solid or stuffed, flesh whitish, gills sublateritium 85. 2. Cap yellow or tinged with tawny, stem yellow, fasciculare 86. 2. Cap brick-red, stem ferruginous, gills green, elæodes 87. 3. Cap red or brick-red, with a yellow margin; gills perplexum 88. 4. Gills yellow, becoming gray, neither green nor epixanthum 89. 2. COPRINUS MICACEUS, 378 4. PANAEOLUS SOLIDIPES 385 90. 3. Pileus soon red-squamose B. pictus 91. 1. Tubes yellowish with reddish, or 92. 2. Stem lacunose-reticulated and 93. 4. Tubes free, or if adnate then 94. 4. Tubes adnate, not stuffed when 95. 6. Tubes free or nearly so, 96. 7. Stem spongy within, soon cavernous 97. 11. Tubes yellowish or stuffed when 98. 11. Tubes whitish, not stuffed. (p. 459.) Versipelles 99. 1. Stem dotted both above and below the 100. 13. Pileus adorned with tufts of hairs or 101. 14. Stem whitish or yellowish-white 102. 17. Pileus some other color B. collinitus 103. 22. Taste acrid or peppery B. piperatus 104. 2. BOLETUS SUBAUREUS, 414 105. 3. BOLETUS FULVUS, 465 106. 1. Tubes free, with red mouths B. auriflammeus 107. 2. Stem pallid, with a circumscribing red B. glabellus 108. 2. Stem yellow, sometimes with red stains B. 109. 6. Pileus reticulated with subcutaneous brown B. dictyocephalus 110. 8. Stem yellowish, streaked with brown B. innixus 111. 3. BOLETUS RUBROPUNCTUS, 429 112. 1. Flesh or tubes changing to blue where 2 113. 6. Tube mouths minute B. spadiceus 114. 3. BOLETUS ILLUDENS, 439 115. 1. Stem red in the depressions, tubes tinged with B. Morgani 116. 1. Stem pale-yellow, tubes not greenish B. Betula 117. 9. Pileus gray or grayish-black, stem straight B. griseus 118. 3. Tubes tinged with green or becoming green where 6 119. 8. Stem even, brownish-red B. decorus 120. 1898. _McIlvaine._ 121. 7. Pileus reddish-tawny or brown B. Sullivantii 122. 2. Margin of the pileus B. versipellis 123. 3. Stem scabrous or B. scaber 124. 4. Pileus dark-brown B. sordidus 125. 1. Stem slender, generally less than four B. 126. 3. Tubes round, white B. 127. 4. Taste mild B. 128. 4. Taste bitter B. felleus 129. 1898. The stem of some specimens spreads at the top. The pileus is often 130. 1. BOLETUS INDECISUS, 468 2–3–4. BOLETUS FELLEUS, 460 131. 1. Pileus granulated B. Murray 132. 1. FISTULINA HEPATICA, 477 2. POLYPORUS SULPHUREUS, 485 133. 2. POLYSTICTUS VERSICOLOR. } About natural 134. 4. POLYPORUS PERENNIS AND } 135. 7. TRAMETES GIBBOSA. } 136. 1897. =Cap= and =stem= dark brown. =Spines= darker. =Stem= swelling 137. 2. PEZIZA COCCINEA, 559 7. CRATERELLUS SINUOSUS, 510 138. 3. PEZIZA AURANTIA, 557 8. CRATERELLUS 509 139. 5. HYPOMYCES LACTIFLUORUM, 562 140. 2. CLAVARIA AUREA, 520 141. 1. CLAVARIA FUSIFORMIS, 523 3. CLAVARIA PISTILLARIS 524 142. 2. CLAVARIA PISTILLARIS 524 143. 1894. The mass was 2 in. in diameter. Separating them was taking the 144. 1. PHALLUS. Page 571. 145. 2. MUTINUS. Page 575. 146. 3. CLATHRUS. 147. 4. SIMBLUM. 148. 5. LATERNEA. 149. 1. POLYPLOCIUM. 150. 2. BATARREA. 151. 3. MYRIOSTOMA. 152. 4. GEASTER. Page 580. 153. 5. ASTRÆUS. 154. 6. MITREMYCES. 155. 7. TYLOSTOMA. Page 582. 156. 8. CALVATIA. Page 582. 157. 9. LYCOPERDON. Page 589. 158. 10. BOVISTELLA. Page 608. 159. 11. CATASTOMA. Page 609. 160. 12. BOVISTA. Page 610. 161. 13. MYCENASTRUM. Page 613. 162. 1. Having washed and cleansed them from the earth which is apt to 163. 2. MORELLES A L'ITALIENNE.—Having washed and dried, divide them across, 164. Introduction, xv

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