Results for 'Chemical education'

971 found
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  1.  33
    Five ideas in chemical education that must die.Eric R. Scerri - 2019 - Foundations of Chemistry 21 (1):61-69.
    The article concerns five traditionally difficult issues that chemical educators encounter and how they should be resolved. In some cases I propose the examination of necessary and sufficient conditions in order to cast light on the relationships under discussion. The five educational issues are, the notion that a pH value of seven implies a neutral solution of water and vice versa, the use of Le Châtelier’s Principle, the relative occupation and ionization of 4s and 3d orbitals, the explanation of (...)
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  2. Emergence, Supervenience, and Introductory Chemical Education.Micah Newman - 2013 - Science & Education 22 (7):1655-1667.
    In learning chemistry at the entry level, many learners labor under misconceptions about the subject matter that are so fundamental that they are typically never addressed. A fundamental misconception in chemistry appears to arise from an adding of existing phenomenal concepts to newly-acquired chemical concepts, so that beginning learners think of chemical entities as themselves having the very same ‘macro’ properties that we observe through the senses. Those who teach or practice chemistry never acquire these misconceptions because they (...)
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  3.  71
    The semantics of chemical education: constructivism, externalism and the language of chemistry. [REVIEW]Pedro J. Sánchez Gómez - 2011 - Foundations of Chemistry 15 (1):103-116.
    In this paper we present a semantic analysis of the application of didactic constructivism to chemical education. We show that the psychological basis of constructivism yield, when applied to chemistry, an internalist semantics for the chemical names. Since these names have been presented as typical examples of an externalism for kind terms, a fundamental incompatibility ensues. We study this situation, to conclude that it affects chemical education at every level. Finally, we present a preliminary analysis (...)
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  4. Part 4: Chemical education. 22. Teach to search.Roald Hoffmann - 2012 - In Roald Hoffmann on the philosophy, art, and science of chemistry. Oxford University Press.
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  5.  75
    The status of constructivism in chemical education research and its relationship to the teaching and learning of the concept of idealization in chemistry.Kevin C. de Berg - 2006 - Foundations of Chemistry 8 (2):153-176.
    A review of the chemical education research literature suggests that the term constructivism is used in two ways: experience-based constructivism and discipline-based constructivism. These two perspectives are examined as an epistemology in relation to the teaching and learning of the concept of idealization in chemistry. It is claimed that experience-based constructivism is powerless to inform the origin of such concepts in chemistry and while discipline-based constructivism can admit such theoretical concepts as idealization it does not offer any unique (...)
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  6. Chemicals in Society: Chemical Education for the Community and the Workplace.Herbert D. Thier & Mark Koker - 1990 - Bulletin of Science, Technology and Society 10 (4):223-227.
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  7.  9
    The status of constructivism in chemical education research and its relationship to the teaching and learning of the concept of idealization in chemistry.Kevin C. De Berg - 2006 - Foundations of Chemistry 8 (2):153-176.
    A review of the chemical education research literature suggests that the term constructivism is used in two ways: experience-based constructivism and discipline-based constructivism. These two perspectives are examined as an epistemology in relation to the teaching and learning of the concept of idealization in chemistry. It is claimed that experience-based constructivism is powerless to inform the origin of such concepts in chemistry and while discipline-based constructivism can admit such theoretical concepts as idealization it does not offer any unique (...)
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  8.  34
    The failure of reduction and how to resist disunity of the sciences in the context of chemical education.Eric R. Scerri - 2000 - Science & Education 9 (5):405-425.
  9. A New ‘Idea of Nature’ for Chemical Education.Joseph E. Earley - 2013 - Science & Education 22 (7):1775-1786.
    This paper recommends that chemistry educators shift to a different ‘idea of nature’, an alternative ‘worldview.’ Much of contemporary science and technology deals in one way or another with dynamic coherences that display novel and important properties. The notion of how the world works that such studies and practices generate (and require) is quite different from the earlier concepts that are now integrated into science education. Eventual success in meeting contemporary technological and social challenges requires general diffusion of an (...)
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  10.  61
    Breaking the law: Promoting domain-specificity in chemical education in the context of arguing about the periodic law. [REVIEW]Sibel Erduran - 2007 - Foundations of Chemistry 9 (3):247-263.
    In this paper, domain-specificity is presented as an understudied problem in chemical education. This argument is unpacked by drawing from two bodies of literature: learning of science and epistemology of science, both themes that have cognitive as well as philosophical undertones. The wider context is students’ engagement in scientific inquiry, an important goal for science education and one that has not been well executed in everyday classrooms. The focus on science learning illustrates the role of domain specificity (...)
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  11.  18
    The History of Chemistry in Chemical Education.John C. Powers - 2020 - Isis 111 (3):576-581.
  12.  72
    Philosophy of chemistry in university chemical education: The case of models and modelling. [REVIEW]Rosária S. Justi & John K. Gilbert - 2002 - Foundations of Chemistry 4 (3):213-240.
    If chemistry is to be taught successfully, teachers must have a good subject matter knowledge (SK) of the ideas with which they are dealing, the nature of this falling within the orbit of philosophy of chemistry. They must also have a good pedagogic content knowledge (PCK), the ability to communicate SK to students, the nature of this falling within the philosophy and psychology of chemical education. Taking the case of models and modelling, important themes in the philosophy of (...)
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  13. Should the Historical Star-System in Chemical Education Be Replaced? [REVIEW]Joseph Earley - 2017 - Science & Education 26 (7-9):1075-1078.
  14. What Is A Chemical Element?: A Collection of Essays by Chemists, Philosophers, Historians, and Educators.Eric R. Scerri & Elena Ghibaudi (eds.) - 2020
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  15. What Is A Chemical Element? A Collection of Essays by Chemists, Philosophers, Historians, and Educators. Edited by Eric Scerri and Elena Ghibaudi. New York, NY: Oxford University Press, 2020, 312 pp. ISBN: 9780190933784, £65.00. [REVIEW]Pieter Thyssen - 2023 - International Studies in the Philosophy of Science (3-4):1-4.
    Compared to its sister disciplines—philosophy of physics and philosophy of biology—philosophy of chemistry remains a relatively young field of philosophical endeavour. Having originated in the late...
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  16.  5
    Interaction, interpretation and representation: the construction and dissemination of chemical knowledge from a Peircean semiotics perspective.Karina Aparecida de Freitas Dias de Souza & Paulo Alves Porto - forthcoming - Foundations of Chemistry:1-19.
    This paper proposes a theoretical approach to discuss the relations among reality, chemists’ interactions with it, and the resulting interpretation and representation of the acquired scientific knowledge. Taking into account that such relations are of semiotic nature, this paper aims at discussing in the light of Peirce’s theory of signs different descriptions of chemical activity and chemical education proposed by Alex Johnstone and elaborated by other science educators. In order to discuss the contributions and limitations of the (...)
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  17.  19
    Chemical research in India (1876–1918).Aparajito Basu - 1995 - Annals of Science 52 (6):591-600.
    The first Indian institution for scientific research was founded in 1876. The period 1876–1918 was a time of gestation for Indian chemistry, in which pure research gradually replaced the need-based, result-oriented research formerly promoted by the British regime. This formative period in Indian chemistry came to an end after the First World War and was succeeded by a rapid expansion of chemical research. The educational and political background against which these changes took place, and the influence of European chemistry (...)
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  18.  28
    The fifth chemical revolution: 1973–1999.José A. Chamizo - 2017 - Foundations of Chemistry 19 (2):157-179.
    A new chronology is introduced to address the history of chemistry, with educational purposes, particularly for the end of the twentieth century and here identified as the fifth chemical revolution. Each revolution are considered in terms of the Kuhnian notion of ‘exemplar,’ rather than ‘paradigm.’ This approach enables the incorporation of instruments, as well as concepts and the rise of new subdisciplines into the revolutionary process and provides a more adequate representation of such periods of development and consolidation. The (...)
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  19.  12
    Chemical ‘canaries’: Munitions workers in the First World War.Patricia Fara - 2023 - History of Science 61 (4):546-560.
    In the early twentieth century, scientific innovations permanently changed international warfare. As chemicals traveled out of laboratories into factories and military locations, war became waged at home as well as overseas. Large numbers of women were employed in munitions factories during the First World War, but their public memories have been overshadowed by men who died on battlefields abroad; they have also been ignored in traditional histories of chemistry that focus on laboratory-based research. Mostly young and poorly educated, but crucial (...)
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  20. Chemical cognitive enhancement: is it unfair, unjust, discriminatory, or cheating for healthy adults to use smart drugs.J. Harris - 2011 - In Judy Illes & Barbara J. Sahakian (eds.), Oxford Handbook of Neuroethics. Oxford University Press. pp. 265--272.
    This article states that drugs could be used to produce, if not more intelligent individuals, at least individuals with better cognitive functioning. Cognitive functioning is something that we might strive to produce through education, including of course the more general health education of the community. Enhancements are good if and only if they make people better at doing some of the things they want to do including experiencing the world through all of the senses, assimilating and processing what (...)
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  21.  7
    Chemical StructureBasic Ideas of Abstract MathematicsThermal Physic.B. E. Dawson, A. M. Hodgson, M. Fyfe, D. Woodrow & A. G. E. Blake - 1971 - British Journal of Educational Studies 19 (2):232.
  22.  14
    Chemical Laws, Idealization and Approximation.Emma Tobin - 2013 - Science & Education 22 (7):1581-1592.
  23.  17
    Has the problem (or puzzle) of the element concept been solved?: Eric Scerri and Elena Ghibaudi (eds): What is a chemical element? A collection of essays by chemists, philosophers, historians, and educators. New York: Oxford University Press, 2020, 296 pp, £65 HB. [REVIEW]Nicholas W. Best - 2022 - Metascience 31 (2):255-259.
  24. Chemical inscriptions in Korean textbooks: Semiotics of macro‐and microworld.Jaeyoung Han & Wolff‐Michael Roth - 2006 - Science Education 90 (2):173-201.
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  25. Chemical Laws.E. M. Tobin - forthcoming - Science & Education.
  26.  18
    Professional organisation, employers and the education of engineers for management: A comparison of mechanical, electrical and chemical engineers in Britain, 1897–1977. [REVIEW]Colin Divall - 1994 - Minerva 32 (3):241-266.
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  27. Issues of heterogeneity and cultural diversity in science education and science education research: a collection of invited papers inspired by the 21st Symposium on Chemical and Science Education held at the University of Dortmund, May 17-19, 2012.Sylvija Markic, Ingo Eilks, David Di Fuccia & Bernd Ralle (eds.) - 2012 - Aachen: Shaker Verlag.
  28.  9
    Edited by Eric Scerri, Elena Ghibaudi. What is a chemical element? A collection of essays by chemists, philosophers, historians, and educators. New York, NY: Oxford University Press, 2020, 312 pp. ISBN: 9780190933784. [REVIEW]Geoff Rayner-Canham - 2021 - Centaurus 63 (3):611-613.
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  29.  27
    How Can We Teach the Chemical Elements to Make the Memorization Task More Enjoyable?Antonio Joaquín Franco-Mariscal - 2014 - Foundations of Science 19 (2):185-188.
    In this commentary to Leal (2013), we argue that the memorization of the names and symbols of the chemical elements is necessary in the study of that topic because this task is the key for the later understanding of the Periodic Table. We can make the memorization task in an enjoyable, but effective way, using some educational games in chemistry class. Some recent puzzles, card games, mnemonics rules or games based on drawings to learn the chemical elements are (...)
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  30.  26
    The “extent of reaction”: a powerful concept to study chemical transformations at the first-year general chemistry courses.Giuliano Moretti - 2014 - Foundations of Chemistry 17 (2):107-115.
    The concept of extent of reaction was discussed many times in physical chemistry journals and books. This contribution strongly suggests the use of the extent of reaction as standard basic tool in teaching stoichiometry. The same idea was suggested several times in the past without success because the concept of extent of reaction is still not presented in the first-year general chemistry textbooks. It is also remarked that the concept of extent of reaction represents a simple example of the way (...)
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  31.  20
    Calico printing and chemical knowledge in lancashire in the early nineteenth century: the life and ‘colours’ of John Mercer.Agustí Nieto-Galan - 1997 - Annals of Science 54 (1):1-28.
    Summary The life and works of John Mercer (1791–1866), a calico-printer from Lancashire, is a good example to illustrate the complexity of the process of printing cottons with natural colours, and the different skills required to obtain a final product able to be sold in the markets in the early years of the nineteenth century. A subtle combination of entrepreneurial dynamism, chemical knowledge, and expertise in the workshop provided a very special sort of ‘artisan-chemist’, who played a key role (...)
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  32. Promoting the acquisition of chemical knowledge by structuring content and processes in instructing gifted students.Michael A. Anton - 2012 - In Sylvija Markic, Ingo Eilks, David Di Fuccia & Bernd Ralle (eds.), Issues of heterogeneity and cultural diversity in science education and science education research: a collection of invited papers inspired by the 21st Symposium on Chemical and Science Education held at the University of Dortmund, May 17-19, 2012. Aachen: Shaker Verlag.
     
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  33.  40
    Metaphor in Chemistry: An Examination of Chemical Metaphor.Farzad Mahootian - unknown
    The function of metaphor in science has been labeled as decorative, persuasive, heuristic, instrumental, facilitating or obstructing. It has sometimes been regarded as inspiring, provoking, perverting or destroying rational thought. Metaphor’s positive role has been noted by philosophers, historians of chemistry, and science education researchers. It has been hailed as a descriptive and explanatory device that stimulates and shapes concept development. I discuss how metaphor functions in science generally, then refine this idea through an examination metaphor’s role in (...) thinking in three contexts: the history and philosophy of chemistry, laboratory research practice, and chemical education. I aim to show how metaphor is already operative in the chemist’s use of the concept of chemical element and that this understanding characterizes chemical thinking in general. The chapter concludes with a discussion of a specifically chemical understanding of metaphor. (shrink)
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  34.  41
    Referring to chemical elements and compounds::Colourless airs in late eighteenth century chemical practice.Vanessa Seifert, James Ladyman & Geoffrey Blumenthal - 2020 - In Eric R. Scerri & Elena Ghibaudi (eds.), What Is A Chemical Element?: A Collection of Essays by Chemists, Philosophers, Historians, and Educators.
    How do we refer to chemical substances, and in particular to chemical elements? This question relates to many philosophical questions, including whether or not theories are incommensurable, the extent to which past theories are later discarded, and issues about scientific realism. This chapter considers the first explicit reference to types of colorless air in late-eighteenth-century chemical practice. Reference to a gas by one chemist was generally intended to give others epistemological, methodological, and practical access to the gas. (...)
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  35.  33
    Resolving the Ethical Dilemma of Nurse Managers Over Chemically-Dependent Colleagues.Wilfred Chiu & Donna Wilson - 1996 - Nursing Ethics 3 (4):285-293.
    This paper addresses the nurse manager's role regarding chemically-dependent nurses in the workplace. The manager may intervene by: terminating the contract of the impaired colleague; notifying a disciplinary committee; consulting with a counselling committee; or referring the impaired nurse to an employee assistance programme. A dilemma may arise about which of these interventions is ethically the best. The ethical theories relevant to nursing involve ethical relativism, utilitarianism, Kantian ethics, Kohlberg's justice, and Gilligan's ethic of care. Nurse managers first need to (...)
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  36.  59
    Coping with the growth of chemical knowledge.Joachim Schummer - manuscript
    Chemistry is by far the most productive science concerning the number of publications. A closer look at chemical papers reveals that most papers deal with new substances. The rapid growth of chemical knowledge seriously challenges all institutions and individuals concerned with chemistry. Chemistry documentation following the principle of completeness is required to schematize chemical information, which in turn induces a schematization of chemical research. Chemistry education is forced to seek reasonable principles of selectivity, although nobody (...)
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  37. From inert object to chemical substance: Students' initial conceptions and conceptual development during an introductory experimental chemistry sequence.Christina Solomonidou & Heleni Stavridou - 2000 - Science Education 84 (3):382-400.
     
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  38.  33
    Are conglomerates less environmentally responsible? An empirical examination of diversification strategy and subsidiary pollution in the U.s. Chemical industry.Robert S. Dooley & Gerald E. Fryxell - 1999 - Journal of Business Ethics 21 (1):1 - 14.
    This study examines the relationship between corporate diversification strategy and the pollution activity of subsidiaries within the U.S. chemical industry using TRI data (EPA's Toxic Release Inventory). The subsidiaries of conglomerates were found to exhibit higher pollution levels for direct emissions than those of firms pursuing more related diversification strategies. Additionally, the subsidiaries of conglomerates exhibited more variance in overall pollution emissions compared to related diversified firms.
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  39. The Alchemy of Identity: Pharmacy and the Chemical Revolution, 1777-1809.Jonathan Simon - 1997 - Dissertation, University of Pittsburgh
    This dissertation reassesses the chemical revolution that occurred in eighteenth-century France from the pharmacists' perspective. I use French pharmacy to place the event in historical context, understanding this revolution as constituted by more than simply a change in theory. The consolidation of a new scientific community of chemists, professing an importantly changed science of chemistry, is elucidated by examining the changing relationship between the communities of pharmacists and chemists across the eighteenth century. This entails an understanding of the (...) revolution that takes into account social and institutional transformations as well as theoretical change, and hence incorporates the reforms brought about during and after the French Revolution. First, I examine the social rise of philosophical chemistry as a scientific pursuit increasingly independent of its practical applications, including pharmacy, and then relate this to the theoretical change brought about by Lavoisier and his oxygenic system of chemistry. Then, I consider the institutional reforms that placed Lavoisier's chemistry in French higher education. ;During the seventeenth century, chemistry was intimately entwined with pharmacy, and chemical manipulations were primarily intended to enhance the medicinal properties of a substance. An independent philosophical chemistry gained ground during the eighteenth century, and this development culminated in the work of Lavoisier who cast pharmacy out of his chemistry altogether. Fourcroy, one of Lavoisier's disciples, brought the new chemistry to the pharmacists in both his textbooks and his legislation. Under Napoleon, Fourcroy instituted a new system of education for pharmacists that placed a premium on formal scientific education. Fourcroy's successors, Vauquelin and Bouillon-Lagrange, taught the new chemistry to the elite pharmacists in the School of Pharmacy in Paris. These pharmacists also developed new analytical techniques that combined the aims of the new chemistry with traditional pharmaceutical extractive practices. The scientific pharmacist was created, who, although a respected member of the community of pharmacists, helped to define the new chemistry precisely by not being a true chemist. (shrink)
     
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  40. First year chemical engineering students' conceptions of energy in solution processes: Phenomenographic categories for common knowledge construction.Jazlin V. Ebenezer & Duncan M. Fraser - 2001 - Science Education 85 (5):509-535.
     
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  41.  16
    An educational reading to the encyclical Spe Salvi by Benedict XVI.Giancarlo Castillo Gutiérrez - 2020 - Veritas – Revista de Filosofia da Pucrs 45:143-159.
    Resumen La esperanza cristiana no consiste en una espera químicamente pura de aquellas realidades futuras de la fe, sino por el contrario, dicha espera ya tiene consigo, de algún modo, las realidades esperadas, aquellas que son capaces de educar a quien las posee. En ese sentido, el presente artículo es una lectura pedagógica a la encíclica Spe Salvi de Benedicto XVI, para identificar en ella, la dimensión educativa de la esperanza y los momentos que la componen. Para el desarrollo de (...)
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  42.  21
    Abstraktion Und Ideation — Zur Semantik Chemischer Und Biologischer GrundbegriffeAbstraction and ideation — The semantics of chemical and biological fundamental concepts.Mathias Gutmann & Gerd Hanekamp - 1996 - Journal for General Philosophy of Science / Zeitschrift für Allgemeine Wissenschaftstheorie 27 (1):29-53.
    ion and Ideation - The Semantics of chemical and biological fundamental concepts. The methods of abstraction and ideation are indispensable tools to introduce new concepts in a scientific terminology. The latter is paradigmatically introduced within the 'protophysical program' whereas abstraction is commonly applied in logics and mathematics. The application within the reconstruction of chemistry and biology causes several problems. Ideation appears to be inadequate whereas the application of abstraction necessitates a critical and minute examination of the corresponding equivalence relations. (...)
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  43.  5
    Ethics of the future of chemical sciences.José Antonio Chamizo & Gustavo Ortiz-Millán - forthcoming - Foundations of Chemistry:1-11.
    The 2016 Royal Society of Chemistry’s report Future of the Chemical Sciences presents four different scenarios for the future of chemistry: chemistry saves the world; push-button chemistry; a world without chemists; and free market chemistry. In this paper we ethically assess them. If chemistry is to solve many of the greatest challenges facing the contemporary world, prioritization of research topics will need to be done explicitly on the basis of moral values, ​​such as solidarity and equity, but also environmental (...)
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  44. Argument map: Devoloping scientific hypotheses and experimental designs in form of an argumentation. Loewi's crucial experiment on chemical neurotransmission.Michael H. G. Hoffmann - forthcoming - .
    This argument map presents Paul Loewi’s crucial experiment in which he showed that neural transmissions of signals are chemical in nature, not electrical, in form of an argumentation. The map can be used in science education to show how the formulation of hypotheses should be related to a corresponding determination of experimental designs.
     
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  45. Progression in high school students'(aged 16–18) conceptualizations about chemical reactions in solution.Hong‐Kwen Boo & J. R. Watson - 2001 - Science Education 85 (5):568-585.
     
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  46. Learning about atoms, molecules, and chemical bonds: A case study of multiple‐model use in grade 11 chemistry.Allan G. Harrison & David F. Treagust - 2000 - Science Education 84 (3):352-381.
     
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  47.  26
    History and philosophy of science through models: The case of chemical kinetics.Rosária Justi & John K. Gilbert - 1999 - Science & Education 8 (3):287-307.
  48. Functional fixedness and functional reduction as common sense reasonings in chemical equilibrium and in geometry and polarity of molecules.C. Furió, Mª L. Calatayud, S. L. Barcenas & O. M. Padilla - 2000 - Science Education 84 (5):545-565.
  49.  29
    Proactive crisis management and ethical discourse: Dow chemical's issues management bulletins 1979-1990. [REVIEW]Debra A. Kernisky - 1997 - Journal of Business Ethics 16 (8):843-853.
    This study employed a Discourse Ethicality survey instrument to analyze the legitimacy and ethicality of one of Dow Chemical's externally focused, rhetorical, crisis management strategies. A stratified random sample of the issues management bulletin The Point Is . . ., published over a ten year time period, was evaluated. The bulletins were divided into three time periods corresponding to significant events in Dow's history over the ten year period. Statistical and thematic analysis determined that perceived legitimacy and ethicality increased (...)
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  50. An exploratory, classroom‐based investigation of students' difficulties with subscripts in chemical formulas.Arthur W. Friedel & David P. Maloney - 1992 - Science Education 76 (1):65-78.
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