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9780199637096

Mouse Genetics and Transgenics A Practical Approach

by ;
  • ISBN13:

    9780199637096

  • ISBN10:

    0199637091

  • Format: Hardcover
  • Copyright: 2000-03-09
  • Publisher: Oxford University Press
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Summary

This unique book integrates knowledge from a wide range of expertise, specifically applied to the mouse and addressed at a wide audience from those new to the field to experts who want an update on the state of the art. Mouse Genetics and Transgenics: A Practical Approach covers all aspects of using the mouse as a genetic model organism: care and husbandry; archiving stocks as frozen embryos or sperm; making new mutations by chemical mutagenesis; transgenesis; gene targeting; mapping mutations and polygenic traits by cytogenetic, genetic, and physical means; and disseminating and researching information via the Internet.

Table of Contents

List of Contributors
xxi
Abbreviations xxiii
Mouse care and husbandry
1(26)
Colin M. Hetherington
Brendan Doe
Donald Hay
Introduction
1(1)
Housing
1(7)
Types of facilities
1(1)
Conventional accommodation
1(1)
Barrier accommodation or specified pathogen free
1(1)
Germ-free (axenic) and gnotobiotic accommodation
2(1)
Maintenance of pathogen-free animals
2(1)
Breeding performance and production
2(1)
Interpretation of data
2(1)
Collaborative experiments
2(1)
Health screening
3(1)
Quarantine
3(1)
Flexible film isolators
4(1)
Individually ventilated cage (IVC) racks
4(1)
Fumigation
5(3)
Husbandry
8(3)
Caging
8(1)
Bedding
9(1)
Diet
9(1)
Water
10(1)
Environmental control
10(1)
Environmental enhancement
10(1)
Animal identification
11(5)
Ear punch
11(1)
Toe clip
11(1)
Ear tags
11(1)
Tail and paw tattooing
11(3)
Electronic tags
14(2)
Record keeping
16(1)
Breeding systems
16(4)
Timed mating
17(1)
Pseudopregnancy and vasectomy
18(1)
Superovulation
19(1)
Rederivation
20(4)
Euthanasia
24(1)
Transportation
24(1)
Legislation
24(3)
Acknowledgements
25(1)
References
25(1)
Further reading
25(2)
Cryopreservation and rederivation of embryos and gametes
27(34)
Peter H. Glenister
William F. Rall
Introduction
27(1)
Proliferation of mouse models
27(2)
Long-term maintenance of mouse models
28(1)
Cryopreservation and banking of mouse germplasm: resources for future research
28(1)
Principles of cryopreservation
29(4)
Controlled freezing
30(2)
Vitrification
32(1)
Skills required for embryo and gamete cryopreservation
33(1)
Special equipment required for cryopreservation
34(1)
Cryopreservation and recovery of mouse embryos
34(12)
Source of embryos and preferred developmental stages
35(1)
Freezing embryos using propylene glycol as cryoprotectant
36(3)
Recovery of embryos and live mice from embryos frozen according to Protocol 2
39(1)
Freezing embryos using glycerol as cryoprotectant
40(2)
Vitrification of embryos in vitrification solution VS3a
42(2)
Recovery of embryos and live mice from embryos cryopreserved according to Protocols 4 and 5
44(2)
Cryopreservation and recovery of mouse gametes
46(7)
Cryopreservation of mouse metaphase II oocytes
47(1)
Recovery of oocytes frozen using Protocol 7
48(1)
Cryopreservation of mouse sperm
49(2)
In vitro fertilization of mouse oocytes
51(2)
Hints and tips
53(2)
Embryo cryopreservation
53(1)
Sperm cryopreservation and in vitro fertilization
54(1)
Long-term storage of embryos and gametes
55(2)
Expected overall survival of cryopreserved embryos and gametes
55(2)
Genetic resource banks
57(4)
Acknowledgements
58(1)
References
58(3)
Spatial analysis of gene expression
61(26)
Stefan G. Nonchev
Mark K. Maconochie
Introduction
61(1)
Dissection of post-implantation embryos
62(1)
Whole-mount non-radioactive in situ hybridization
63(9)
Precautions for RNA work
63(1)
Theory of in situ hybridization
64(1)
Generation of riboprobe
65(2)
Fixation and pre-treatment of embryos
67(1)
Hybridization and removal of non-specific hybrids
68(1)
Immunodetection of signals
69(2)
Troubleshooting
71(1)
Reporter transgenes
72(5)
General considerations
72(1)
Introduction and uses of reporter genes
72(1)
Detection of β-galactosidase activity
73(1)
Detection of alkaline phosphatase activity
74(1)
Use of the green fluorescent protein (GFP) in transgenesis
75(2)
Multiple and combined detection systems
77(6)
Whole-mount staining of early (8.0--12.5 dpc) embryos
77(1)
Multiple detection on cryostat and paraffin sections
78(5)
Whole-mount skeletal analysis
83(4)
Acknowledgements
85(1)
References
85(2)
Mapping phenotypic trait loci
87(34)
Benjamin A. Taylor
Introduction
87(1)
Rationale for mapping
87(1)
Genetic definition of trait locus
87(1)
Identification of candidate genes
87(1)
Genetic manipulation
87(1)
Background information for mapping phenotypic trait loci of the mouse
88(1)
Definitions
88(1)
Mouse genome
89(1)
Mapping basics
89(1)
A backcross mapping experiment: a model for simple mapping experiments
89(11)
Identifying the phenotypic variant
89(1)
Choosing a tester strain
90(2)
Mating mutant and tester stock to produce F1 progeny
92(1)
Producing backcross progeny
92(1)
Classifying progeny for the target locus
93(1)
Extracting a DNA sample
93(1)
A linkage testing plan
93(2)
Genotyping a subset of backcross progeny for selected markers
95(1)
Recording data
96(1)
Scanning data for linkage
96(1)
Finding markers that flank the target
97(1)
Finding closer markers
97(1)
Analysing the complete data set to determine gene order and distance
97(1)
Reporting linkage data
98(1)
Size of cross
99(1)
Markers for fine mapping
100(1)
Incomplete penetrance, phenocopies and reduced viability
100(1)
Mapping by intercross
101(1)
QTL mapping, including the use of derivitive strains
102(10)
General nature of QTL mapping
102(1)
QTL mapping using strain crosses
103(1)
Strain selection
103(1)
Backcross versus intercross
103(1)
Number of progeny
104(1)
Marker spacing
104(1)
Selective genotyping
105(1)
Significance thresholds
106(1)
Confidence intervals
107(1)
Fine mapping QTLs
107(1)
Selective phenotyping
107(1)
Progeny testing
108(1)
Congenic strain construction
108(1)
Advanced intercross populations
108(1)
Derivative inbred strains for QTL mapping
109(1)
Recombinant inbred strains
109(2)
Congenic strains
111(1)
Recombinant congenic strains
111(1)
Consomic strains
112(1)
Markers
112(2)
DNA pooling
114(7)
Acknowledgements
118(1)
References
118(3)
Mapping genomes
121(22)
Paul Denny
Stephen D. M. Brown
Introduction
121(1)
Applications of genetic and physical mapping
122(2)
Genetic mapping
124(7)
Types of genetic marker
124(1)
Genotyping using silver-staining of SSCP gels
124(2)
Genotyping using fluorescently-labelled dCTP incorporation into PCR products from SSLP markers, for analysis on ABI sequencers
126(2)
Linking different maps together
128(1)
Generating new genetic markers in specific genomic regions
129(2)
Criteria for making the decision to construct physical maps
131(1)
Physical mapping
131(12)
Introduction to physical mapping
131(1)
Primary contig generation
132(2)
Clone identification using hybridization assay
134(2)
Chromosome walking/gap filling
136(1)
Isolating insert end sequences
136(2)
Validation of clone contigs
138(2)
Acknowledgements
140(1)
References
140(3)
Mouse cytogenetics and FISH
143(1)
Introduction
143(1)
Analysing mouse chromosomal rearrangements with G-banded chromosomes
144(10)
Ellen C. Akeson
Muriel T. Davisson
Introduction
144(1)
Metaphase chromosomes
144(4)
Stimulation of peripheral mouse lymphyocytes by phytohaemagglutinin and lipopolysaccharide
148(1)
Phytohaemagglutinin
148(1)
Lipopolysaccharide
149(1)
G-bands
149(2)
Identifying and karyotyping mouse chromosomes
151(1)
Recognizing aberrant chromosomes
152(2)
Acknowledgement
153(1)
References
153(1)
Fluorescent in situ hybridization (FISH) to mouse chromosomes
154(17)
Margaret Fox
Sue Povey
Introduction
154(1)
FISH and chromosome identification
154(1)
Repeat DNA
154(1)
Mouse chromosome paints
155(1)
P1 probes
155(1)
Obtaining mouse chromosomes
155(3)
Probes and labelling
158(2)
DNA
158(1)
Labelling by nick translation
158(1)
Chromosome paints and direct labelling
159(1)
FISH
160(7)
Probe preparation
160(2)
Hybridization
162(5)
Analysis and microscopy
167(4)
References
169(2)
Electronic tools for accessing the mouse genome
171(14)
Janan T. Eppig
Introduction
171(1)
Databases of genomic information for the mouse
171(4)
The Mouse Genome Database (MGD)
171(4)
The MRC Mammalian Genetics Unit
175(1)
Specific data sets for genetic, radiation hybrid and physical mapping
175(3)
Genetic data
175(1)
The Whitehead Institute/MIT map
175(1)
EUCIB
175(1)
Jackson Laboratory backcross
176(1)
Copeland-Jenkins interspecific backcross
176(1)
M. Seldin interspecific backcross
176(1)
Radiation hybrid data
176(1)
The Jackson Laboratory mouse radiation hybrid database
177(1)
The EBI radiation hybrid database
177(1)
Physical mapping data
177(1)
Genome-wide physical map
177(1)
X-Chromosome physical map
177(1)
Gene expression data
178(1)
The Gene Expression Database (GXD)
178(1)
The mouse 3D atlas
178(1)
Databases of transgenics, knock-outs and other induced mutations
179(1)
The transgenic/targeted mutation database (TBASE)
179(1)
Mouse Knockout and Mutation Database (MKMD)
179(1)
Induced mutant resource (IMR)
179(1)
Animal resources lists
180(1)
International mouse strain resource (IMSR)
180(1)
The Jackson Laboratory: JAX mice IMR, MMR, DNA resource
180(1)
European Mouse Mutant Archive (EMMA)
181(1)
mgi-list, an electronic bulletin board for the mouse community
181(1)
Summary
181(4)
References
182(3)
Mutagenesis of the mouse germline
185(32)
Monica J. Justice
Introduction
185(1)
Mouse mutagenesis
185(6)
Spontaneous mutations
185(1)
Systems for assessing mutation rate
186(1)
Reporter genes
186(1)
Specific locus test
187(1)
Dominant phenotype assays
188(1)
Other assays
188(1)
Developing a mouse mutant resource
188(1)
Determining functional complexity of genomic regions
189(1)
Human disease models
189(1)
Allelic series
190(1)
Unravelling biochemical or developmental pathways
190(1)
High-efficiency mutagenesis with N-ethyl-N-nitrosourea
191(10)
Mode of action
191(1)
ENU: chemical properties, stability and half-life
191(1)
Types of DNA lesion caused by ENU
191(1)
Effects on protein products
192(1)
Induction of mutations in the mouse germline
192(1)
Doses and treatment protocols
192(4)
Genetic screens to isolate mutations
196(1)
Dominant mutations
196(1)
Single-locus screens for recessive mutations
197(1)
Three-generation breeding scheme for recessive mutations
197(2)
Two-generation breeding scheme using deletions
199(1)
Modifiers and sensitized pathways
200(1)
Practical considerations for ENU mutagenesis
201(8)
Breeding considerations
201(1)
Male rotations
201(2)
Gamete sampling for spermatogonial stem-cell mutagenesis
203(3)
Strain background effects
206(1)
Inbred strains to use for mutagenesis
206(1)
F1 hybrids
207(1)
Other observations
208(1)
Rate of recovery to fertility
208(1)
Mutation rates for different loci
208(1)
Cancer susceptibility and lifespan
208(1)
Other mutagens
209(2)
Radiation mutagenesis
209(1)
X-rays: treatment and mutations recovered
209(1)
Other types of radiation
210(1)
Chlorambucil
210(1)
Future prospects
211(6)
DNA repair
211(1)
Sequence-based screening for lesions
211(1)
The future of mutagenesis
211(1)
References
212(5)
Generation of transgenic mice from plasmids, BACs and YACs
217(30)
Annette Hammes
Andreas Schedl
Introduction
217(4)
Principles and general considerations
217(1)
Difficulties and limitations
218(1)
Construct design
219(1)
Perspectives
220(1)
Factors influencing the efficiency of transgenesis
220(1)
Choice of mouse strains
221(1)
DNA isolation
221(7)
Plasmid DNA
221(2)
YAC DNA
223(3)
BAC DNA
226(1)
Testing the DNA concentration and quality
227(1)
The microinjection set-up
228(4)
Location and design of the injection table
229(1)
Microscope
230(1)
Micromanipulators
230(1)
The holding pipette
231(1)
Microinjection needles
231(1)
The microinjection experiment
232(8)
Superovulation and isolation of fertilized oocytes
232(2)
Microinjections
234(1)
Timing of injections
234(1)
Injections
234(2)
Oviduct transfer
236(1)
Pseudopregnant females
236(1)
Preparation of the transfer pipette
237(1)
Oviduct transfer
238(2)
Analysis of transgenic founders
240(7)
Tail tipping and ear punching
243(1)
Isolation of genomic DNA from tail biopsies
243(2)
Southern blot analysis
245(1)
References
245(2)
Directed mutagenesis in embryonic stem cells
247(38)
Antonius Plagge
Gavin Kelsey
Nicholas D. Allen
Introduction
247(2)
Basic elements of construct design
249(5)
Replacement versus insertion
249(1)
Regions of homology
250(1)
The mutation
251(1)
Components of the targeting cassette
251(1)
Enrichment for targeted events
252(1)
Screening strategies
253(1)
Alternative approaches for construct design
254(1)
The use of site-specific recombinases in targeting
254(9)
Excision of heterologous DNA from a targeted locus
255(1)
Excision from ES-cell clones with recombinase expression plasmids
256(1)
Excision in mice using transgenic mice expressing recombinase
257(1)
Oocyte microinjection of recombinase
257(1)
Use of recombinases to generate conditional somatic knock-outs
257(1)
Spatially restricted knock-outs using tissue specific promoters to drive recombinase expression
258(1)
Temporally regulated knock-outs using inducible recombinases
259(3)
Knocking-in: recombinase mediated integration into chromosomally positioned target sites
262(1)
Subtle mutations without site-specific recombinases
263(2)
Double replacement
264(1)
`Hit-and-run'
265(1)
Chromosome engineering in ES cells
265(3)
Deletions, inversions and duplications
265(3)
Translocations
268(1)
Generating, analysing and maintaining knock-out mice
268(17)
ES-cell culture and pluripotency
268(1)
Analysis of ES-cell potency in chimeras with tetraploid embryos
269(1)
Equipment for injection of ES cells into embryos
269(2)
Host embryos
271(1)
Blastocyst injection
272(3)
Morula injection
275(2)
Morula aggregation
277(1)
Transfer of embryos to the uterus
278(1)
Genetic background
279(1)
Maintenance of mutations as co-isogenic and congenic lines and mutant analysis in a hybrid background
280(1)
Chimera analysis
281(1)
Acknowledgements
282(1)
References
282(3)
List of suppliers 285(5)
Index 290

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