abortion, spontaneous
Achillea millefolium
additive trait. See also polygenic trait
Africans: and sickle cell anemia; evolution of
Agrobacterium tumefaciens, fig. 6.1
alkaptonuria, fig. 3.7
Alzheimer’s disease
Ames test
Amish
amino acids: and changes in hemoglobin, table 7.1; coding to make proteins, fig 4.5–4.8; composition in proteins, table 4.1; errors in coding; in PKU
amniocentesis, fig. 7.3
Anastasia Romanov
annotation
antibiotics; resistant bacteria
antioxidants
Arabidopsis thaliana
asbestos
aspartame
autism
Avery, Oswald
BAC. See bacterial artificial chromosomes
Bacillus thuringiensis
bacteria; antibiotic resistant; genetic properties of; making proteins in, fig. 5.3, table 5.1; DNA polymerase from. See also Agrobacterium tumefaciens; Eschericia coli; Streptococcus pneumoniae
bacterial artificial chromosomes
bananas, fig. 7.2
barley
base substitution
biolistics, fig. 6.2–6.3
blending inheritance
blood, fig. 3.1; clotting factors, table 5.1; umbilical cord blood. See also blood type; hemochromatosis; hemoglobin; hemophilia; sickle-cell anemia
brachydactyly, fig. 10.1
Bt toxin. See Bacillus thuringiensis
caffeine
cancer, table 5.1; breast; leukemia; lung; prostate; skin; thyroid
canola, table 6.1
centimorgans
Chain, Ernst Boris
chorionic villus sampling, fig. 7.3
chromosomes, figs. 2.3–2.4, fig. 7.4; abnormalities in numbers, fig 7.4; bacterial, fig. 5.2; karyotype, fig. 7.1, fig. 7.3; sex, fig. 2.3, fig. 7.4
cloning: animal, figs. 13.1–13.2; gene, fig. 5.3; human, see human cloning; plants, fig. 6.1, fig. 6.3
codominance
codon, fig. 4.6
color blindness, fig. 3.2
complementary base pairing, fig. 1.2
corn; genetically modified, table 6.1
Correns, Carl
Crick, Francis
deletion
DeoxyriboNuclease (DNase)
deoxyribonucleic acid. See DNA
DES. See diethylstilbestrol
DeVries, Hugo, fig. 2.2, fig 2.4
diethylstilbestrol (DES)
differentiation
diseases: congenital adrenal hyperplasia; cystic fibrosis, table 5.1
DiSilva, Ashanti
DNA; copying; extracting; ligase, fig. 5.3; polymerase, table 4.1; structure of, fig. 1.2, figs. 4.1–4.2. See also mitochondrial DNA; recombinant DNA
DNase. See DeoxyriboNuclease
domestication
dominance; incomplete, fig. 2.5; codominance, fig. 3.1; of human traits
dominant diseases, fig. 3.3; Huntington’s disease; Marfan syndrome. See also under specific diseases
Down’s syndrome
Drosophila melanogaster, fig. 2.6; chromosome composition, fig. 2.3
dwarfism, fig. 11.1
E. coli. See Eschericia coli
ecology
eggs: human oocyte; chicken egg production
embryonic stem cells, fig. 13.2
enzymes, table 5.1; proofreading; restriction, figs. 5.1–5.3, fig. 6.3; RNA polymerase, fig. 4.4.9
Equal (sweetener). See aspartame
erythropoietin, table 5.1
Eschericia coli, figs. 5.1.2; medically important proteins made in, table 5.1
evolution, human
Feulgen reaction
Feulgen, Robert
fibrillin, table 4.1
fitness
Flemming, Sir Alexander
Florey, Sir Howard Walter
food safety
founder effect
Franklin, Rosalind
Fragile X syndrome
Fugu rubripes
fruitfly. See Drosophila melanogaster
fungal diseases
galactosemia
games: founder effect; independent assortment; pedigree; random genetic effect; replication, transcription, and translation
gel electrophoresis, fig. 1.4.B, fig. 9.5.B, fig. B.9.1
Gelsinger, Jeff
gene gun, figs. 6.2–6.3
gene regulation, fig. 4.9
gene therapy
genetically modified organisms (GMOs): animals, figs. 13.1–13.2; ecological issues; food safety; labeling; opposition to; plants, fig. 6.1, fig. 6.3, table 6.1. See also individual plants: banana, canola, corn, poplar trees, potato, tomato
genetic code, fig. 4.6
genetic diversity
genome; sequencing projects
genotype
GMOs. See genetically modified organisms
growth hormone. See somatotropin
Hardy, Godfrey H.
Hardy-Weinberg Law
hemoglobin, table 4.1; in sickle-cell anemia, figs. 9.4–9.5; variants in, table 7.1
hemochromatosis
hemophilia, fig. 3.2; gene therapy for; pedigree, fig. 3.5; predicting frequency of, in population, fig 10.7; treatment with blood clotting factors, table 5.1
hepatitis C: in hemophilia patients; treatment of, table 5.1
herbicide resistance, table 6.1
heritability, fig. 12.4
hermaphrodites
heterogametic
heterozygote/heterozygous; advantages
homogametic
homozygote/homozygous
human: evolution; genome; karyotype, fig. 7.1, fig. 7.4; number of genes; reproduction
human cloning: reproductive; therapeutic
Huntington’s disease
hydrogen bonds holding together DNA double-helix, fig. 1.2
immune cells; reaction; severe combined immunodeficiency (SCID)
incomplete dominance, fig. 2.5
independent assortment, fig. 9.1, table 9.1; game
insertion
insulin: amino acid composition of, table 4.1; making of, in bacteria, fig. 5.3
intelligence, fig. 12.4
karyotype, fig. 7.1, figs. 7.3–7.4
Kelsey, Frances
Kleinhofs, Andris
laws of inheritance: dominance; independent assortment; segregation
leukemia
linkage; sex, fig. 2.6, fig. 3.2, fig 10.7; to DNA marker
Lykken, Sam
malaria: genome; heterozygous advantage; resistance to, table 7.1
male pattern baldness
maple syrup urine disease
Marfan syndrome, fig. 3.3, fig. 3.6
meiosis, fig. 2.3; errors in; in human reproduction
Miescher, Friedrich
Mendel, Gregor
Mendelian inheritance; in humans
messenger RNA. See mRNA; RNA
metabolic disease, genetic, fig. 3.7
migration
mitochondrial DNA
mitosis, fig. 2.3
Morgan, Thomas Hunt
Mullis, Kary
multifactorial traits. See polygenic traits
multigenic traits. See also polygenic traits
muscular dystrophy. See myotonic dystrophy
mutagens; chemical; defined; detecting; and electromagnetic radiation
mutation; spontaneous
myotonic dystrophy
newborn testing; for PKU; for sickle-cell anemia; for maple syrup urine disease
Nicholas II (Tsar of Russia)
Nobel Prize: for penicillin; granted to Mullis; granted to Watson, Crick, and Wilkins; not granted to Avery; not granted to Franklin
nuclear transfer, fig. 13.1
Nutrasweet. See aspartame
osteogenic protein, table 5.1
oxidative damage
ozone
PCR. See polymerase chain reaction
pedigree analysis, figs. 3.5–3.7; game; Queen Victoria’s, fig. 3.5; symbols used in, fig. 3.4
penicillin
pesticide
phenotype
phenylketonuria (PKU); frequency in different populations; heterozygous advantage; newborn testing
phytoremediation
PKU. See phenylketonuria
plants: crossing; genetically modified, table 6.1; transformation, fig. 6.1, fig. 6.3. fig. B.9.2.B
plasmids, fig. 5.2.3; multidrug resistant; Ti plasmid use in plant transformation, fig. 6.1, fig. 6.3; in gene therapy
polygenic traits, fig. 12.2. See also quantitative trait loci
polymerase chain reaction (PCR), fig. 1.4; detecting genetically modified plants; human identification
polyvinyl chloride (PVC)
poplar trees
potato, table 6.1
primer, fig. 1.4; in identifying genetically modified plants; in identifying human remains
President Adams
Prince Philip of Edinburgh
promoter, fig. 4.4; in gene regulation, fig. 4.9; in plant transformation
protease; for DNA extraction
proteins: amino acid compositions of, table 4.1; translation, fig. 4.7.8; making in bacteria
Punnett, Reginald C.
Punnett squares, figs. 2.4–2.6, figs. 3.2–3.3, figs. 9.1–9.3; in polygenic traits, fig. 12.1; to predict population ratios, figs. 10.2–10.5, fig. 10.7
pufferfish. See Fugu rubripes
quantitative trait loci (QTL)
quantitative traits. See also polygenic traits
Queen Elizabeth II
Queen Victoria, fig. 3.5
QTL. See quantitative trait loci
radioactivity
random genetic drift, fig 11.1; game
recessive diseases; alkaptonuria, fig. 3.7; galactosemia; phenylketonuria (PKU); sickle-cell anemia. See also under specific diseases
recombinant DNA, fig. 5.3; detecting, in genetically modified plants; in human medical products, table 5.1; in plant genetic modification, fig. 6.1.3; used to make human proteins, fig. 5.3
recombination, fig. 9.3
restriction enzymes, fig. 5.1
restriction fragment length polymorphism (RFLP), fig. 9.4.5, B9.1
RFLP. See restriction fragment length polymorphism
ribonucleic acid. See RNA
rice: genome; golden
RNA, fig. 4.1; genetic material of virus; mRNA, figs. 4.2–4.3; tRNA, figs. 4.7–4.8
Romanovs
Saunders, Edith
segregation, rule of
selection
sex determination
sex-influenced traits
sex-linkage/sex-linked traits, fig. 2.6, fig. 3.2, fig. 3.5; predicting frequency in population, fig. 10.7
sickle-cell anemia; amino acid change in; heterozygous advantage; RFLP and, fig. 9.5
single-nucleotide polymorphism (SNP)
skin color
SNP. See single-nucleotide polymorphism
somatotropin, table 5.1
sperm, making of
stem cells, fig 13.2
Streptococcus pneumoniae, fig. 1.1
Swift, Hewson
synthetic gene
Tay-Sachs disease, fig. 10.5
teratogen
terminator, fig. 4.4, fig. 4.9; in plant transformation
thalidomide
Ti plasmid, fig. 6.1, fig. 6.3
tissue plasminogen activator (tPA), table 5.1
tomato, table 6.1
transcription, fig. 4.4; game
transformation: bacterial; plants, fig. 6.1, fig. 6.3, fig. B.9.2
translation, figs. 4.7–4.8; game
triplet repeat error
triploid, fig. 7.2
trisomy
twins, fig. 12.4
ultraviolet (UV) rays: as mutagen; as selective force
vaccines
variance, fig. 12.3
variation: as necessary for selection; observed in polygenic traits
vinyl chloride
viruses: dangers of, in medically important products; genome of; in gene therapy; plants resistant to, table 6.1
vitamins: A; C; D; E; treatment with
Watson, James
Weinberg, Wilhelm
Wilkins, Maurice
X chromosome. See chromosomes, sex; sex-linkage
X-ray: crystallography, fig. 1.3; as mutagen
Y chromosome: in human evolution. See also chromosomes, sex
yeast, used to make human proteins