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Metal Ions in Life Sciences"
I N S T R U C T I O N S F O R A U T H O R S Contributing to "Metal Ions in Life Sciences" edited by Astrid Sigel, Helmut Sigel, and Roland K. O. Sigel published by Walter de Gruyter GmbH, Berlin, Germany www.mils-WdG.com (for previous volumes visit www.bioinorganic-chemistry.org/mils) Contents 1. GENERAL REMARKS ............................................................................................... 2 2. SUBMISSION OF THE MANUSCRIPT ................................................................. 2 3. PREPARATION OF THE MANUSCRIPT ............................................................. 3 3.1. Arrangement of the Manuscript .......................................................................... 3 3.2. Organization of the Content of the Manuscript .................................................. 3 3.3. Text .................................................................................................................... 4 3.3.1. General ................................................................................................... 4 3.3.2. Further Directions ................................................................................ 4 3.4. Citations and Reference Style ............................................................................. 4 3.5. Tables ................................................................................................................. 5 3.6. Artwork ............................................................................................................... 5 3.6.1. General -
The Spontaneous Generation Controversy (340 BCE–1870 CE)
270 4. Abstraction and Unification ∗ ∗ ∗ “O`uen ˆetes-vous? Que faites-vous? Il faut travailler” (on his death-bed, to his devoted pupils, watching over him). The Spontaneous Generation Controversy (340 BCE–1870 CE) “Omne vivium ex Vivo.” (Latin proverb) Although the theory of spontaneous generation (abiogenesis) can be traced back at least to the Ionian school (600 B.C.), it was Aristotle (384-322 B.C.) who presented the most complete arguments for and the clearest statement of this theory. In his “On the Origin of Animals”, Aristotle states not only that animals originate from other similar animals, but also that living things do arise and always have arisen from lifeless matter. Aristotle’s theory of sponta- neous generation was adopted by the Romans and Neo-Platonic philosophers and, through them, by the early fathers of the Christian Church. With only minor modifications, these philosophers’ ideas on the origin of life, supported by the full force of Christian dogma, dominated the mind of mankind for more that 2000 years. According to this theory, a great variety of organisms could arise from lifeless matter. For example, worms, fireflies, and other insects arose from morning dew or from decaying slime and manure, and earthworms originated from soil, rainwater, and humus. Even higher forms of life could originate spontaneously according to Aristotle. Eels and other kinds of fish came from the wet ooze, sand, slime, and rotting seaweed; frogs and salamanders came from slime. 1846 CE 271 Rather than examining the claims of spontaneous generation more closely, Aristotle’s followers concerned themselves with the production of even more remarkable recipes. -
Questions & Answers for the New Chemicals Program
Note: Effective January 19, 2016, PMNs must be submitted electronically. Learn more about the new e-PMN requirements. Questions & Answers for the New Chemicals Program (Q&A) U.S. Environmental Protection Agency Office of Pollution Prevention and Toxics Washington, DC 20460 2004 -1- TABLE OF CONTENTS Page 1. GENERAL PROGRAM INFORMATION 100. General ............................................................................................................ 1-1 101. Guidance for Completion of §5 Submission Form ......................................... 1-6 102. Inventory Searches/Bona Fides ....................................................................... 1-17 103. Chemical Identification ................................................................................... 1-22 104. Nomenclature .................................................................................................. 1-26 105. Inventory Issues ................................................................................................ 1-31 106. Review Process ............................................................................................... 1-31 107. Notice of Commencement .............................................................................. 1-33 108. User Fee .......................................................................................................... 1-35 109. Consolidated Notices ...................................................................................... 1-39 110. Joint Submissions .......................................................................................... -
CHEMISTRY Faculty Douglas A
CHEMISTRY Faculty Douglas A. Fantz, associate professor of chemistry and chair Lilia C. Harvey, interim associate vice president for academic affairs and associate dean of the college and professor of chemistry Ruth E. Riter, professor of chemistry T. Leon Venable, associate professor of chemistry Sarah A. Winget, associate professor of chemistry Agnes Scott’s academic program in chemistry, approved by the American Chemical Society (ACS), introduces students to the principles, applications, and communication of chemical knowledge and provides extensive practical experience with modern instrumentation in laboratory courses and through research opportunities. The science of chemistry concerns the structure and properties of matter with an interest in the changes that occur as matter reacts. The study of chemistry is particularly appropriate to students interested in medicine, academic or industrial scientific research, forensics, or teaching. Two major options (ACS approved or non-ACS approved track) and a minor option are available. The ACS approved major curriculum is most appropriate for students interested in entering industry or continuing their studies in graduate school. The non-ACS approved major curriculum, while rigorous, affords a student flexibility to pursue other academic interests during their time at Agnes Scott. The curriculum for majors requires a strong foundation in all five subdisciplines of chemistry (analytical, inorganic, organic, physical, and biochemistry), while allowing students to tailor upper-level requirements -
Clinical Chemistry Analyzer
Clinical Chemistry Analyzer UMDNS GMDN 16298 Analyzers, Laboratory, Clinical Chemistry, 35918 Laboratory urine analyser IVD, automated Automated 56676 Laboratory multichannel clinical chemistry analyser IVD, automated Other common names: Biochemistry analyzer Health problem addressed Perform tests on whole blood, serum, plasma, or urine samples to determine concentrations of analytes (e.g., cholesterol, electrolytes, glucose, calcium), to provide certain hematology values (e.g., hemoglobin concentrations, prothrombin times), and to assay certain therapeutic drugs (e.g., theophylline), which helps diagnose and treat numerous diseases, including diabetes, cancer, HIV, STD, hepatitis, kidney conditions, fertility, and thyroid problems. Product description Chemistry analyzers can be benchtop devices or placed on a cart; other systems require fl oor space. They are used to determine the concentration of certain metabolites, electrolytes, proteins, and/or drugs in samples of serum, plasma, urine, cerebrospinal fl uid, and/or other body fl uids. Samples are inserted in a slot or loaded onto a tray, and tests are programmed via a keypad or Use and maintenance bar-code scanner. Reagents may be stored within the analyzer, User(s): Laboratory technician and it may require a water supply to wash internal parts. Results Maintenance: Laboratory technician; are displayed on a screen, and typically there are ports to biomedical or clinical engineer connect to a printer and/or computer. Training: Initial training by manufacturer and Core medical equipment - Information Principles of operation manuals After the tray is loaded with samples, a pipette aspirates a precisely measured aliquot of sample and discharges it into the Environment of use reaction vessel; a measured volume of diluent rinses the pipette. -
TSCA Inventory Representation for Products Containing Two Or More
mixtures.txt TOXIC SUBSTANCES CONTROL ACT INVENTORY REPRESENTATION FOR PRODUCTS CONTAINING TWO OR MORE SUBSTANCES: FORMULATED AND STATUTORY MIXTURES I. Introduction This paper explains the conventions that are applied to listings of certain mixtures for the Chemical Substance Inventory that is maintained by the U.S. Environmental Protection Agency (EPA) under the Toxic Substances Control Act (TSCA). This paper discusses the Inventory representation of mixtures of substances that do not react together (i.e., formulated mixtures) as well as those combinations that are formed during certain manufacturing activities and are designated as mixtures by the Agency (i.e., statutory mixtures). Complex reaction products are covered in a separate paper. The Agency's goal in developing this paper is to make it easier for the users of the Inventory to interpret Inventory listings and to understand how new mixtures would be identified for Inventory inclusion. Fundamental to the Inventory as a whole is the principle that entries on the Inventory are identified as precisely as possible for the commercial chemical substance, as reported by the submitter. Substances that are chemically indistinguishable, or even identical, may be listed differently on the Inventory, depending on the degree of knowledge that the submitters possess and report about such substances, as well as how submitters intend to represent the chemical identities to the Agency and to customers. Although these chemically indistinguishable substances are named differently on the Inventory, this is not a "nomenclature" issue, but an issue of substance representation. Submitters should be aware that their choice for substance representation plays an important role in the Agency's determination of how the substance will be listed on the Inventory. -
Are Enzymes Accurate Indicators of Postmortem Interval?: a Biochemical Analysis Karly Laine Buras Louisiana State University and Agricultural and Mechanical College
Louisiana State University LSU Digital Commons LSU Master's Theses Graduate School 2006 Are enzymes accurate indicators of postmortem interval?: a biochemical analysis Karly Laine Buras Louisiana State University and Agricultural and Mechanical College Follow this and additional works at: https://digitalcommons.lsu.edu/gradschool_theses Part of the Social and Behavioral Sciences Commons Recommended Citation Buras, Karly Laine, "Are enzymes accurate indicators of postmortem interval?: a biochemical analysis" (2006). LSU Master's Theses. 177. https://digitalcommons.lsu.edu/gradschool_theses/177 This Thesis is brought to you for free and open access by the Graduate School at LSU Digital Commons. It has been accepted for inclusion in LSU Master's Theses by an authorized graduate school editor of LSU Digital Commons. For more information, please contact [email protected]. ARE ENZYMES ACCURATE INDICATORS OF POSTMORTEM INTERVAL? A BIOCHEMICAL ANALYSIS A Thesis Submitted to the Graduate Faculty of the Louisiana State University and Agricultural and Mechanical College in partial fulfillment of the requirements for the degree of Master of Arts in The Department of Geography and Anthropology by Karly Laine Buras B.S., Louisiana State University, 2001 May 2006 ACKNOWLEDGEMENTS I would like to thank the members of my thesis committee for their continued encouragement and help throughout my program. My heartfelt thanks go out to Bob Tague, Mary Manhein, and Grover Waldrop for helping me along the way. I would especially like to thank Grover Waldrop for his contributions to my thesis expenses, as well as for the use of his lab for my research. I would not have been able to do any of this without his help. -
12.10 Mill Mx
millennium essay A victim of truth Vitalism was an attempt to reconcile rationality with a sense of wonder. Sunetra Gupta onvictions, said Nietzsche, are more he life of Jons dangerous enemies of truth than lies. Jacob Berzelius EVANS MARY CAmong the catalogue of convictions T that the human race has challenged and traced the tensions eventually relinquished is the fascinating notion that living organisms are distinct between materialism from nonliving entities by possessing a and idealism in dramatic ‘vital force’. The philosophy of ‘vitalism’ has its roots in the original distinction between detail. organic and inorganic compounds, dating from around 1600, which was based on their reaction to heat. Although both types remaining tenets of vitalism — that although of substance changed form when heated, organic chemicals could be modified in the inorganic compounds could be recovered laboratory, they could only be produced upon removing the heat source, whereas the through the agency of a vital force present in organic compounds appeared to undergo a living plants and animals. mysterious and irrevocable alteration. Berzelius apparently tried to downplay The implication that the latter were Wohler’s discovery by exiling urea to a hin- imbued with a vital force gave birth to an terland between organic and inorganic com- idea that eventually came to occupy a very pounds. An alternative school of thought tricky position between materialism and proposes that his lack of enthusiasm had idealism by endorsing the viewpoint that, more to do with the problems it posed for his although organic material might obey the own theory of inorganic compound forma- same physical and chemical laws as inorgan- tion. -
History of Microbiology: Spontaneous Generation Theory
HISTORY OF MICROBIOLOGY: SPONTANEOUS GENERATION THEORY Microbiology often has been defined as the study of organisms and agents too small to be seen clearly by the unaided eye—that is, the study of microorganisms. Because objects less than about one millimeter in diameter cannot be seen clearly and must be examined with a microscope, microbiology is concerned primarily with organisms and agents this small and smaller. Microbial World Microorganisms are everywhere. Almost every natural surface is colonized by microbes (including our skin). Some microorganisms can live quite happily in boiling hot springs, whereas others form complex microbial communities in frozen sea ice. Most microorganisms are harmless to humans. You swallow millions of microbes every day with no ill effects. In fact, we are dependent on microbes to help us digest our food and to protect our bodies from pathogens. Microbes also keep the biosphere running by carrying out essential functions such as decomposition of dead animals and plants. Microbes are the dominant form of life on planet Earth. More than half the biomass on Earth consists of microorganisms, whereas animals constitute only 15% of the mass of living organisms on Earth. This Microbiology course deals with • How and where they live • Their structure • How they derive food and energy • Functions of soil micro flora • Role in nutrient transformation • Relation with plant • Importance in Industries The microorganisms can be divided into two distinct groups based on the nucleus structure: Prokaryotes – The organism lacking true nucleus (membrane enclosed chromosome and nucleolus) and other organelles like mitochondria, golgi body, entoplasmic reticulum etc. are referred as Prokaryotes. -
Oceanic CO2 Outgassing and Biological Production Hotspots
Biogeosciences Discuss., https://doi.org/10.5194/bg-2019-152 Manuscript under review for journal Biogeosciences Discussion started: 25 April 2019 c Author(s) 2019. CC BY 4.0 License. Oceanic CO2 outgassing and biological production hotspots induced by pre-industrial river loads of nutrients and carbon in a global modelling approach Lacroix Fabrice1,2, Ilyina Tatiana1, and Hartmann Jens3 1Ocean in the Earth System, Max Planck Institute for Meteorology, Hamburg, Germany 2Department of Geoscience, Université Libre de Bruxelles, Brussels, Belgium 3Institute for Geology, Center for Earth System Research and Sustainability, University of Hamburg, Hamburg, Germany Correspondence to: Fabrice Lacroix ([email protected]) Abstract. Rivers are a major source of nutrients, carbon and alkalinity for the global ocean, where the delivered compounds strongly impact biogeochemical processes. In this study, we firstly estimate pre-industrial riverine fluxes of nutrients, carbon and alkalinity based on a hierarchy of weathering and land-ocean export models, while identifying regional hotspots of the land-ocean exports. Secondly, we implement the riverine loads into a global biogeochemical ocean model and describe their 5 implications for oceanic nutrient concentrations, the net primary production (NPP) and CO2 fluxes globally, as well as in a regional shelf analysis. Thirdly, we quantify the terrestrial origins and the long-term oceanic fate of riverine carbon in the framework, while assessing the potential implementation of riverine carbon fluxes in a fully coupled land-atmosphere-ocean model. Our approach leads to annual pre-industrial riverine exports of 3.7 Tg P, 27 Tg N, 158 Tg Si and 603 Tg C, which were derived from weathering and non-weathering sources and were fractionated into organic and inorganic compounds. -
Epa–Hq–Oppt–2019–0131
Federal Register / Vol. 84, No. 55 / Thursday, March 21, 2019 / Notices 10491 Organizations 6100–09 ENVIRONMENTAL PROTECTION delivery of boxed information, please • Promotional partners 6100–09 AGENCY follow the instructions at http:// Annual Reporting Form—Online and www.epa.gov/dockets/contacts.html. Hard-copy Confidential Business [EPA–HQ–OPPT–2019–0131; FRL–9991–06] Additional instructions on commenting Information (CBI) Forms or visiting the docket, along with more • Initiation of Prioritization Under the Plumbing Manufacturers 6100–09 Toxic Substances Control Act (TSCA) information about dockets generally, is • Non-plumbing Manufacturers available at http://www.epa.gov/ 6100–09 AGENCY: Environmental Protection dockets. • Retailers/Distributors 6100–09 Agency (EPA). FOR FURTHER INFORMATION CONTACT: For Provider Quarterly Reporting Form ACTION: Notice. technical information about the • Licensed Certification Providers candidates for high priority contact: 6100–09 SUMMARY: As required under the Toxic Ana Corado, Chemical Control Division, Award Application Form Substances Control Act (TSCA) and Office of Pollution Prevention and • Builders 6100–17 related implementing regulations, EPA Toxics, Office of Chemical Safety and • Licensed Certification Providers is initiating the prioritization process for 6100–17 Pollution Prevention, Environmental 20 chemical substances as candidates Protection Agency (Mailcode 7408M), • Manufacturers 6100–17 for designation as High Priority • Professional Certifying 1200 Pennsylvania Ave. NW, Substances -
Formation of New Substance
TEACHER NOTES Chemistry > Big idea CCR: Chemical reactions > Topic CCR1: Chemical change Key concept (age 11-14) CCR1.1: Formation of new substance What’s the big idea? A big idea in chemistry is that during a chemical reaction, atoms are rearranged, resulting in the formation of a new substance or substances which have different properties. How does this key concept develop understanding of the big idea? This key concept develops the big idea by introducing chemical reactions, at the macroscopic scale, as a type of process that results in the formation of a new substance or substances (a chemical change). The conceptual progression starts by checking understanding of physical and chemical change. It then supports the development of a macroscopic understanding of the concept of chemical reaction starting with observational evidence of the formation of a new substance. This leads to an understanding of why decomposition is a chemical reaction, even though it has one reactant. Using the progression toolkit to support student learning Use diagnostic questions to identify quickly where your students are in their conceptual progression. Then decide how to best focus and sequence your teaching. Use further diagnostic questions and response activities to move student understanding forwards. Developed by the University of York Science Education Group and the Salters’ Institute. 1 This key concept may have been edited. Download the original from www.BestEvidenceScienceTeaching.org © University of York Science Education Group. Distributed under a Creative Commons Attribution-Non-commercial (CC BY-NC) license. TEACHER NOTES Progression toolkit: Formation of new substance Learning focus During a chemical reaction a new substance (or substances) are formed which have different properties.