William Ernest Castle
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THE American Museum Journal
T ///^7; >jVvvscu/n o/ 1869 THE LIBRARY THE American Museum Journal VOLUME VII, 1907 NEW YORK: PUBLISHED BY THE AMERICAN MUSEUM OF NATURAL HISTORY 1907 Committee of Publication EDMUND OTIS HOVF.Y, Ediior. FRANK M. ( IIAPMAN ] LOUIS P. GHATACAP \ .l<lris-on/ linanl WILLIAM K. GREGOIlvJ THE AMERICAN MUSEUM OF NATURAL HISTORY. 77th Street and Central Park West, New York. OFFICERS AND COMMITTEES PRESIDEXT MORRIS K. JESUP FIRST VICE-PRESIDENT SECOND VICE-PRESIDENT J. PIERPONT MORGAN HENRY F. OSBORN TREASURER SECRETARY CHARLES LANIER J. HAMPDEN ROBB ASSISTANT SECRETARY AND DIRECTOR ASSISTANT TREASURER HERMON C. BUMPUS GEORGE H. SHERWOOD BOARD OF TRUSTEES Class of 1907 D. O. :\IILLS ALBERT S. BICKMORE ARCHIBALD ROGERS CORNELIUS C. CUYLER ADRIAN ISELIN, Jr. Class of 1908 H. o. have:\ieyer Frederick e. hyde A. I). JUHJJAIU) GEORCiE S. BOWDOIN (TEVELANl) H. DOIXJE Class of 1909 MORRIS K. JESUP J. PIERPONT MORGAN JOSEPH H. CHOATE GEORGE G. HAVEN HENRY F. OSBORN Class of 1910 J. HAMPDEN ROBB PERCY R. PYNE ARTHUR CURTISS JAMES Class of 1911 CHARLES LANIER WILLIAISI ROCKEFELLER ANSON W. HARD GUSTAV E. KISSEL SETH LOW Scientific Staff DIRECTOR Hermon C. Bumpus, Ph.D., Sc. D. DEPARTMENT OF PUBLIC INSTRUCTION Prof. Albert S. Bickmore, B. S., Ph.D., LL.D., Curator Emeritus George H. Shehwood, A.B., A.M., Curator DEPARTMENT OF GEOLOGY AND INVERTEBRATE PALEONTOLOGY Prof. R. P. Whitfield, A.M., Curator Edmund Otis Hovey, A.B., Ph.D., Associate Curator DEPARTMENT OF MAMMALOGY AND ORNITHOLOGY Prof. J. A. Allen, Ph.D., Curator Frank M. Chapman, Associate Curator DEPARTMENT OF VERTEBRATE PALAEONTOLOGY Prof. -
Frank Morton Carpenter (1902-1994): Academic Biography and List of Publications
FRANK MORTON CARPENTER (1902-1994): ACADEMIC BIOGRAPHY AND LIST OF PUBLICATIONS BY DAVID G. FURTH 18 Hamilton Rd., Arlington, MA 02174 The present paper is meant to accompany the preceding one by Elizabeth Brosius, Assistant Editor at the University of Kansas, Paleontological Institute, who was extremely instrumental in aid- ing Prof. Frank Carpenter to finish his Treatise on Invertebrate Paleontology volumes on fossil insects. The Brosius paper is a brief profile taken from her personal interaction with Prof. Carpen- ter as well as numerous interviews about him with his friends, stu- dents, and colleagues. The present paper is intended to be more of an account of Prof. Carpenter's academic background and accom- plishments with the addition of some personal and academic accounts of the author's interaction with Frank Carpenter. Frank Morton Carpenter was born in Boston on 6 September 1902. When he was three years old his family (father Edwin A. and mother Maude Wall) moved from Boston to Revere and at age six his family moved to Melrose where he began to attend Lincoln School the following year. His father worked for the American Express Company but had a strong interest in natural history and taught his elder son (Edwin, four years older than Frank) about the constellations. Edwin later graduated from Harvard, studied astronomy, and became Director of the Astronomical Laboratory at the University of Arizona in Tucson. When Frank Carpenter was a sixth grader at Lincoln School his father encouraged his interest in butterflies and moths. In ninth grade Frank Carpenter began taking out books about insects from the Melrose Public Library. -
My Association with William Steel Creighton
University of Nebraska - Lincoln DigitalCommons@University of Nebraska - Lincoln Center for Systematic Entomology, Gainesville, Insecta Mundi Florida December 1989 My association with William Steel Creighton George C. Wheeler UniversiIy of North Dakota at Grand Forks Follow this and additional works at: https://digitalcommons.unl.edu/insectamundi Part of the Entomology Commons Wheeler, George C., "My association with William Steel Creighton" (1989). Insecta Mundi. 480. https://digitalcommons.unl.edu/insectamundi/480 This Article is brought to you for free and open access by the Center for Systematic Entomology, Gainesville, Florida at DigitalCommons@University of Nebraska - Lincoln. It has been accepted for inclusion in Insecta Mundi by an authorized administrator of DigitalCommons@University of Nebraska - Lincoln. Vol. S, No. 4, December 1989 299 My association with William Steel Creighton George C. Wheeler Unhremity Professor Emeritus Department of Bidogy UnhrersiIy of North Dakota at Grand Forks 3358 NE 58th Avenue Silver Springs, florlda 32688 Introduction The recent (1986) publieation of Wy Associa- tion with William Morton Wheeler" evidently stirred my latent autobiographical urge. It is quite reason- able that I should next apply it to William Steel Creighton, for he certainly ranks next to W. M. Wheeler among American myrmecologists. It will be quite different, however, because my actual associa- tion with Creighton was very brief twice a dinner guest in New York City and two visits in La Feria, Texas. Correspondence, however, is quite different. I received 45 letters from W. M. Wheeler between 1919 and 1936; the last was dated four months before his death. They dealt chietly with our pro- posed treatise on ant larvae; only two ran over to the second page. -
1939.Pdf (3.535Mb)
Vol. LXXIX, No. 1 THE August, 1940 BIOLOGICAL BULLETIN PUBLISHED BY THE MARINE BIOLOGICAL LABORATORY THE MARINE BIOLOGICAL LABORATORY FORTY-SECOND REPORT, FOR THE YEAR 1939 FIFTY-SECOND YEAR I. TRUSTEES AND EXECUTIVE COMMITTEE (AS OF AUGUST 8, 1939) 1 STANDING COMMITTEES 2 II. ACT OF INCORPORATION 3 III. BY-LAWS OF THE CORPORATION 4 IV. REPORT OF THE TREASURER 5 V. REPORT OF THE LIBRARIAN 10 VI. REPORT OF THE DIRECTOR 12 Statement 12 Addenda : 1. Memorials of Deceased Trustees 14 2. Scientific Record of Students 25 3. The Staff, 1939 27 4. Investigators and Students, 1939 30 5. Tabular View of Attendance 40 6. Subscribing and Cooperating Institutions, 1939 ... 41 7. Evening Lectures, 1939 42 8. Shorter Scientific Papers, 1939 43 9. General Scientific Meetings, 1939 44 10. Members of the Corporation 48 I. TRUSTEES EX OFFICIO FRANK R. LILLIE, President of the Corporation, The University of Chicago. CHARLES PACKARD, Associate Director, Columbia University. LAWRASON RIGGS, JR., Treasurer, 120 Broadway, New York City. PHILIP H. ARMSTRONG, Clerk of the Corporation, Syracuse University Medi- cal College. EMERITUS H. C. BUMPUS, Brown University. G. N. CALKINS, Columbia University. E. G. CONKLIN, Princeton University. R. A. HARPER, Columbia University. H. S. JENNINGS, University of California. M. M. METCALF, Waban, Mass. 1 2 MARINE BIOLOGICAL LABORATORY T. H. MORGAN, California Institute of Technology. G. H. PARKER, Harvard University. W. B. SCOTT, Princeton University. TO SERVE UNTIL 1943 W. C. ALLEE, The University of Chicago. B. M. DUGGAR, University of Wisconsin. L. V. HEILBRUNN, University of Pennsylvania. LAURENCE IRVING, Swarthmore College. J. H. -
Laboratory III Linkage
Genetics Laboratory III Biology 303 Spring 2007 Linkage Dr. Wadsworth Introduction same chromosome, the meiotic assortment of chromosomes alone would not predict the Genes are arranged as units in a linear order independent assortment of genes on those along chromosomes. The position of each gene chromosomes. In the absence of gene along the chromosome is called its locus. Each assortment, we would predict that the progeny gene has a unique chromosomal position and could only have the allelic combinations that therefore a unique locus. In fact, geneticists were present in the parent chromosomes. Genes often use the term genetic locus interchangeably that do not assort are said to show complete with the term gene. linkage. Alternatively, genes that independently assort are said to be unlinked. For the following The relative position of genes along a two examples, compare the genotypes and chromsomes can be analyzed by determining phenotypes generated in a dihybrid crosses of their linkage relationship. The concept of unlinked and completely linked genes. genetic linkage is outlined in this handout and will be discussed in class in the coming weeks. The position of a gene on a chromosome can be Example 1: A dihybrid cross for genes A and B, establish its identity. two unlinked genes. Generation Genotypes Phenotypes Specific Goals P1 AABBXaabb AB and ab 1. Conduct appropriate genetic crosses with a F1 AaBb AB mutant D. melanogaster to determine the following: F2 1AABB:2AABb: 9AB:3Ab:3aB:1ab 2AaBB:4AaBb:1AAbb: 2Aabb:1aaBB:2aaBb:1aabb a. Segregation b. Independent Assortment/Linkage Phenotypic ratio from dihybrid cross for c. -
John D. Sherman, Jr., Papers, 1886-1960
John D. Sherman, Jr., Papers, 1886-1960 Finding aid prepared by Smithsonian Institution Archives Smithsonian Institution Archives Washington, D.C. Contact us at [email protected] Table of Contents Collection Overview ........................................................................................................ 1 Administrative Information .............................................................................................. 1 Historical Note.................................................................................................................. 1 Descriptive Entry.............................................................................................................. 1 Names and Subjects ...................................................................................................... 1 Container Listing ............................................................................................................. 3 John D. Sherman, Jr., Papers https://siarchives.si.edu/collections/siris_arc_217453 Collection Overview Repository: Smithsonian Institution Archives, Washington, D.C., [email protected] Title: John D. Sherman, Jr., Papers Identifier: Record Unit 7296 Date: 1886-1960 Extent: 4.5 cu. ft. (9 document boxes) Creator:: Sherman, John D., 1872-1960 Language: Language of Materials: English Administrative Information Prefered Citation Smithsonian Institution Archives, Record Unit 7296, John D. Sherman, Jr., Papers Historical Note John D. Sherman, Jr., (1872-1960) was an entomologist and entomological book -
Wheeler, William Morton
Wheeler, William Morton The Ants of Alaska Bulletin of the Museum of Comparative Zoology AT HARVARD COLLEGE. VOL. LX1". No. 2. THK ANTS OF ALASKA. BY \YlJ,UAM MoUTON WlIKKLKR. CAMBRIDGE, MASS., U. S. A.: PRINTED FOR THE MUSEUM. I'.MT. Bulletin of the Museum, of Comparative Zoology AT HARVARD COLLEGE. VOL. LXI. No. 2. THE ANTS OF ALASKA. BY WILLIAM MORTON WHEELEK. CAMBRIDGE, MASS., U. S. A.: PRINTED FOR THE MUSEUM. MARCH, 1917. M r? No. 2. The Ants of Alaska. CONTRIBUTIONS FROM THE ENTOMOLOGICAL LABORATORY OF THE BUSSEY INSTITUTION, HARVARD UNIVERSITY, NO. 126. BY WILLIAM MORTON WHEELER. OUR knowledge of the Formicidae of Alaska has been of very slow growth, probably because most of the collectors who have ventured into that extensive region have found ants too scarce and inconspicu- ous to merit serious attention. In 1899 Prof. Trevor Kincaid, while accompanying the Harriman Alaska Expedition, secured a number of specimens of five species which were recorded by Pergande (Proc. Wash. acad. sci., 1900, 2, p. 519-521) as Formica neorufibarbis Emery, Lasius niger Linne subsp. sitkaensis Pergande, Leptothorax yankee Emery var. kincaidi Pergande, Myrmica sabuleti Meinert var. lobifrons Pergande and Myrmica sulcinodoides Emery. Three of these were new to science, but unfortunately Pergande's descriptions of them are inadequate and puzzling, and although the types (No. 5277-5279) were cited as being in the U. S. N. M., Mr. S. A. Rohwer, after careful search has been unable to find them, and I have failed to find any cotypes in Pergande's private collection, which was acquired by the Museum after his death. -
© Copyright Jennifer Leigh Hansen, January, 2017. All Rights Reserved. PERMISSION to USE
ECOLOGICAL THOUGHT AT THE INTERNATIONAL CONGRESS OF ARTS AND SCIENCE, 1904 A Thesis Submitted to the College of Graduate Studies and Research In Partial Fulfillment of the Requirements For the Degree of Doctor of Philosophy In the Department of History University of Saskatchewan Saskatoon By JENNIFER LEIGH HANSEN © Copyright Jennifer Leigh Hansen, January, 2017. All rights reserved. PERMISSION TO USE In presenting this thesis/dissertation in partial fulfillment of the requirements for a Postgraduate degree from the University of Saskatchewan, I agree that the Libraries of this University may make it freely available for inspection. I further agree that permission for copying of this thesis/dissertation in any manner, in whole or in part, for scholarly purposes may be granted by the professor or professors who supervised my thesis/dissertation work or, in their absence, by the Head of the Department or the Dean of the College in which my thesis work was done. It is understood that any copying or publication or use of this thesis/dissertation or parts thereof for financial gain shall not be allowed without my written permission. It is also understood that due recognition shall be given to me and to the University of Saskatchewan in any scholarly use which may be made of any material in my thesis/dissertation. Requests for permission to copy or to make other uses of materials in this thesis/dissertation in whole or part should be addressed to: Head of the Department of History 9 Campus Drive University of Saskatchewan Saskatoon, Saskatchewan S7N 5A5 Canada OR Dean College of Graduate Studies and Research University of Saskatchewan 107 Administration Place Saskatoon, Saskatchewan S7N 5A2 Canada i ABSTRACT Ecological thought shows remarkable continuity since 1800. -
Revise Meiosis Process and the Relation Between Mendel Laws and Meiosis Before Proceeding with This Lecture
Genetics (BTBio 211) Lecture 3 part 2 2015-2016 Revise Meiosis process and the relation between Mendel laws and Meiosis before proceeding with this lecture. Meiosis Action: For each Parent 2 Chromosomes 2 Chromatids each 2 Chromosomes 1 Chromosome each 4 gametes: 4 Chromatid s 4 Chromatids each 1 Chromosome each each 1 Chromatids each 1 Genetics (BTBio 211) Lecture 3 part 2 2015-2016 LINKAGE AND CHROMOSOME MAPPING IN EUKARYOTES I. LINKAGE Genetic linkage is the tendency of genes that are located proximal to each other on a chromosome to be inherited together during meiosis. Genes whose loci are nearer to each other are less likely to be separated onto different chromatids during chromosomal crossover, and are therefore said to be genetically linked. Linked genes: Genes that are inherited together with other gene(s) in form of single unit as they are located on the same chromosome. For example: in fruit flies the genes for eye color and the genes for wing length are on the same chromosome, thus are inherited together. A couple of genes on chromosomes may be present either on the different or on the same chromosome. 1. The independent assortment of two genes located on different chromosomes. Mendel’s Law of Independent Assortment: during gamete formation, segregation of one gene pair is independent of other gene pairs because the traits he studied were determined by genes on different chromosomes. Consider two genes A and B, each with two alleles A a and B b on separate (different) chromosomes. 2 Genetics (BTBio 211) Lecture 3 part 2 2015-2016 Gametes of non-homologous chromosomes assort independently at anaphase producing 4 different genotypes AB, ab, Ab and aB with a genotypic ratio 1:1:1:1. -
Ernst Haeckel and the Struggles Over Evolution and Religion
89 Ernst Haeckel and the Struggles over Evolution and Religion Robert J. Richards1 Abstract As a young man, Ernst Haeckel harbored a conventional set of Evangelical beliefs, mostly structured by the theology of Schleiermacher. But the conversion to Darwinian theory and the sudden death of his young wife shifted his ideas to the heterodox mode, more in line with Goethe and Spinoza. Haeckel’s battles with the religiously minded became more intense after 1880, with attack and counterattack. He particularly engaged Erich Wasmann, a Jesuit entomologist who had become an evolutionist, and the Keplerbund, an organization of Protestant thinkers who opposed evolutionary theory and accused him of deliberate fraud. In these struggles, Haeckel defined and deepened the opposition between traditional religion and evolutionary theory, and the fight continues today. If religion means a commitment to a set of theological propositions regarding the nature of God, the soul, and an afterlife, Ernst Haeckel (1834-1919) was never a religious en- thusiast. The influence of the great religious thinker Friedrich Daniel Schleiermacher (1768-1834) on his family kept religious observance decorous and commitment vague.2 The theologian had maintained that true religion lay deep in the heart, where the inner person experienced a feeling of absolute dependence. Dogmatic tenets, he argued, served merely as inadequate symbols of this fundamental experience. Religious feeling, accord- ing to Schleiermacher’s Über die Religion (On religion, 1799), might best be cultivated by seeking after truth, experiencing beauty, and contemplating nature.3 Haeckel practiced this kind of Schleiermachian religion all of his life. Haeckel’s association with the Evangelical Church, even as a youth, had been con- ventional. -
Issue 85 of the Genetics Society Newsletter
JULY 2021 | ISSUE 85 GENETICS SOCIETY NEWS In this issue The Genetics Society News is edited by • Presidential handover Margherita Colucci and items for future • Genetics Society Summer Studentship - Share your story, Part 1 issues can be sent to the editor by email • A chat with Dr Stuart Ritchie - Exploring “Science fictions” to [email protected]. • Committee on Mutagenicity of Chemicals in Food, Consumer The Newsletter is published twice a year, Products and the Environment (COM) with copy dates of July and January. • How genetic linkage was discovered Genetics Society Summer Studentship - Share your stories, Part 1. Read the interviews on page 27 A WORD FROM THE EDITOR A word from the editor Welcome to Issue 85 elcome to the latest issue of the world that cry for change: with WGenetics Society Newsletter! Dr Stuart Ritchie, we explore In this issue, “change” is the keyword. misconduct and fraud in science and the solutions that “open science” Through a series of interviews, we proposes, talking about his latest explored the changes from their book “Science fictions: how fraud, undergraduate role and the career bias, negligence and hype undermine evolution of the past years Summer the search for truth”. Studentship grant winners. Where are they now? What impact that research I would like to draw your attention experience had on them? Find out to the opportunity of contributing more in “Genetics Society Summer to the special issue of Heredity. In Studentship - Share your story, July 2022, this special issue will be Part 1”, page 23. celebrating Mendel’s 200th birthday with short essays, reviews and Big changes happened in the Society research articles on “exceptions” too. -
Linkage, Recombination, and Eukaryotic Gene Mapping 163
Linkage, Recombination, 7 and Eukaryotic Gene Mapping LINKED GENES AND BALD HEADS or many, baldness is the curse of manhood. Twenty-five Fpercent of men begin balding by age 30 and almost half are bald to some degree by age 50. In the United States, baldness affects more than 40 million men, who spend hundreds of mil- lions of dollars each year on hair-loss treatment. Baldness is not just a matter of vanity: bald males are more likely to suffer from heart disease, high blood pressure, and prostate cancer. Baldness can arise for a number of different reasons, including illness, injury, drugs, and heredity. The most-com- mon type of baldness seen in men is pattern baldness—techni- cally known as androgenic alopecia—in which hair is lost pre- (a) (b) maturely from the front and top of the head. More than 95% of hair loss in men is pattern baldness. Although pattern bald- ness is also seen in women, it is usually expressed weakly as mild thinning of the hair. The trait is clearly stimulated by male Pattern baldness is a hereditary trait. sex hormones (androgens), as evidenced by the observation Recent research demonstrated that a gene that males castrated at an early age rarely become bald (but this for pattern baldness is linked to genetic markers located on the X chromosome, is not recommended as a preventive treatment for baldness). leading to the discovery that pattern A strong hereditary influence on pattern baldness has long baldness is influenced by variation in the been recognized, but the exact mode of inheritance has been androgen-receptor gene.