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Homburger, Sheila A.; Drits-Esser, Dina; Malone, Molly; Stark, Louisa A. – American Biology Teacher, 2021
Arguing from evidence is one of eight key science practices in which students should engage. It is an essential component of science, yet students have difficulties with this practice. We describe a scaffolded claims-evidence-reasoning (CER) argumentation framework that is embedded within a new eight-week, freely available curriculum unit…
Descriptors: Persuasive Discourse, Science Instruction, Evidence, Logical Thinking
Powell, Britnie; Malone, Molly; Drits-Esser, Dina; Stark, Louisa A. – Science and Children, 2018
The mechanics by which unique individuals are built from the instructions encoded in DNA is too advanced for elementary-age children. However, students can easily understand that organisms have observable traits and that each individual has a unique combination of traits, ideas that are included in the "Next Generation Science Standards"…
Descriptors: Science Instruction, Elementary School Science, Learning Activities, Genetics
Todd, Lindsay; Keim, Lisa; Broder, Dale – Science and Children, 2020
This article describes a self-guided, story-like game with creative drawing for grades 3-5 that teaches the evolution concepts of adaptation, natural selection, ecosystem dynamics, inheritance, and mutation following the "Next Generation Science Standards" ("NGSS"). Drawing reinforces concepts through emphasis on students'…
Descriptors: Elementary School Science, Science Instruction, Evolution, Teaching Methods
Stansfield, William D. – American Biology Teacher, 2013
Before beginning a series of presentations on evolution, it would be prudent to survey the general level of students' understanding of prerequisite basic concepts of reproduction, heredity, ontology, and phenotypic diversity so that teachers can avoid devoting time to well-known subjects of general knowledge and can spend more time on subjects…
Descriptors: Heredity, Readiness, Evolution, Science Instruction
Dennis, Mike; Duggan, Adrienne; McGregor, Deb – Primary Science, 2014
Evolution and inheritance appear in the new National Science Curriculum for England, which comes into effect from September 2014. In the curriculum documents, it is expected that pupils in year 6 (ages 10-11) should be taught to: (1) recognise that living things have changed over time; (2) recognise that living things produce offspring of the same…
Descriptors: Science Instruction, Evolution, Science Curriculum, Grade 6
Farrar, Jennifer; Barnhart, Kelsi – Science Teacher, 2011
Chromosomes, alleles, chromatids, genotype, phenotype, mitosis, meiosis, fertilization--this vocabulary can be overwhelming, confusing, and difficult for students to tie together. However, since these terms are commonplace in the high school biology classroom, and are the basis for understanding both DNA and heredity, students must understand…
Descriptors: Biology, Genetics, Science Instruction, Heredity
Bonner, J. Jose – Science Teacher, 2011
Students may wonder why they look the way they do. The answer lies in genetics, the branch of biology that deals with heredity and the variation of inherited traits. However, understanding how an organism's genetic code (i.e., genotype) affects its characteristics (i.e., phenotype) is more than a matter of idle curiosity: It's essential for…
Descriptors: Heredity, Genetics, Human Body, Biology
Colon-Berlingeri, Migdalisel – American Biology Teacher, 2010
Epigenetics involves heritable changes in gene expression that do not involve alterations in the DNA sequence. I developed an active-learning approach to convey this topic to students in a college genetics course. I posted a brief summary of the topic before class to stimulate exchange in cooperative groups. During class, we discussed the…
Descriptors: Genetics, Teaching Methods, Biology, Science Instruction
Snyder, Jennifer – American Biology Teacher, 2008
This article presents an activity that uses sandwich bags to represent an individual's genome (their genetic make-up), and two variations of various objects representing the alleles of various genes. This activity includes the major components of an introductory genetics unit: from gamete production through probabilities of expected offspring…
Descriptors: Genetics, Statistical Analysis, Probability, Heredity
Stansfield, William D. – American Biology Teacher, 2008
Gregor Mendel (1822-1884) is rightly credited as being the "father of modern genetics." He presented the results of his pea experiments at a meeting of his local natural history society in two lectures during 1865. His paper was published in the proceedings of the society the next year. From his breeding experiments with the edible pea, he…
Descriptors: Genetics, Teaching Methods, Science Instruction, Biology
White, Brian; Bolker, Ethan; Koolar, Nikunj; Ma, Wei; Maw, Naing Naing; Yu, Chung Ying – American Biology Teacher, 2007
This lab is a computer simulation of transmission genetics. It presents students with a genetic phenomenon--the inheritance of a randomly--selected trait. The students' task is to determine how this trait is inherited by designing their own crosses and analyzing the results produced by the software.
Descriptors: Genetics, Computer Simulation, Science Laboratories, Science Instruction
McEwen, Birgitta – Journal of Biological Education, 2007
How do we support the enthusiasm children show for biology in school? Unfortunately, lack of exciting practical work and boring biology lessons seem to make science less popular. As a senior lecturer in plant physiology at Karlstad University I have simplified experiments intended for students at university and then tested them on 10-11 year old…
Descriptors: Biology, Genetics, Science Instruction, Heredity
Kurvink, Karen; Bowser, Jessica – American Biology Teacher, 2004
A creative learning game that helps students reinforce basic genetic information and facilitate the identification and understanding of the more subtle issues is presented. The basic framework of the game was conceived by a business major taking non-biology major course 'heredity and society-intertwining legacy.
Descriptors: Heredity, Genetics, Educational Games, Nonmajors
Jones, Bridget – Primary Science Review, 2005
Each new baby is scrutinised and their facial features and other characteristics catalogued against known family members. This is essentially a social process: the new family member is recognised and accepted into the tribe. However, people's genetic inheritance--the information in their DNA--is also a serious matter with the potential to…
Descriptors: Genetics, Science Instruction, Elementary School Science, Teaching Methods

Journet, Alan R. P. – Science Teacher, 1984
Describes the use of a Pac-Man model (called a Pactype) in teaching various genetics concepts. Indicates that students can learn to make predictions, analyze patterns of inheritance, and evaluate hypotheses before being introduced to the genetics vocabulary. (JN)
Descriptors: Biology, DNA, Genetics, Heredity
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