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Thrive in Cell Biology [Mīkstie vāki]

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(School of Healthcare Science, Manchester Metropolitan University), (School of Cancer and Enabling Sciences, University of Manchester, UK), (Formerly of Manchester Metropolitan University)
  • Formāts: Paperback / softback, 480 pages, height x width x depth: 234x157x23 mm, weight: 630 g, 110 BW line
  • Sērija : Thrive In Bioscience Revision Guides
  • Izdošanas datums: 21-Feb-2013
  • Izdevniecība: Oxford University Press
  • ISBN-10: 0199697329
  • ISBN-13: 9780199697328
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  • Mīkstie vāki
  • Cena: 48,20 €
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Thrive in Cell BiologyPalielināt
  • Formāts: Paperback / softback, 480 pages, height x width x depth: 234x157x23 mm, weight: 630 g, 110 BW line
  • Sērija : Thrive In Bioscience Revision Guides
  • Izdošanas datums: 21-Feb-2013
  • Izdevniecība: Oxford University Press
  • ISBN-10: 0199697329
  • ISBN-13: 9780199697328
Citas grāmatas par šo tēmu:
Permanent link: https://www.kriso.lv/db/9780199697328.html
Keywords:
The Thrive in Bioscience revision guides are written to help undergraduate students achieve exam success in all core areas of bioscience. They communicate all the key concepts in a succinct, easy-to-digest way, using features and tools - both in the book and in digital form - to make learning even more effective.

The Thrive in Bioscience guides are written to help students achieve exam success in all core areas of bioscience.

Each title in the series encourages students to follow four simple steps to maximize learning potential:

Step 1: Review the facts
The revision guides are designed to make learning quick and effective:
* Information is set out in bullet points, making content easy to take in.
* Clear, uncluttered illustrations illuminate key points.
* Key concept panels summarize essential learning points.

Step 2: Check your understanding
Students are encouraged to:
* Complete the questions at the end of chapters and answer online multiple-choice questions to reinforce their learning.
* Use the online flashcard app to master essential terms and phrases.

Step 3: Take note of extra advice
Revision tips--and hints for getting higher grades on exams--are presented throughout.

Step 4: Go the extra mile
Students can explore the suggestions for further reading to take their understanding one step further.

Features of the Thrive in Bioscience Series:
* Written by a group of highly experienced educators
* Succinct writing style and clear, bulleted presentation
* Carefully developed artwork that reinforces key points
* Extensive in-text pedagogy--including review questions--that supports active learning
* Companion website resources--including interactive flashcards and multiple-choice review questions

~~~~~~~~~~~~~~~~~~~~~~~~~~~~

Titles in the series:

Thrive in Biochemistry and Molecular Biology
by Lynne Cox, David Harris, and Catherine Pears
ISBN 9780199645480

Thrive in Cell Biology
by Qiuyu Wang, Chris Smith, and Emma Davis
ISBN 9780199697328

Thrive in Ecology and Evolution
by Alan Beeby and Ralph Beeby
ISBN 9780199644056

Thrive in Genetics
by Alison Thomas
ISBN 9780199694624

Recenzijas

Beautifully presented with clear, concise bullet points and very useful diagrams and figures Overall, this is a fantastic addition to the bookshelf of any student studying cell biology. * C Murgatroyd, British Journal of Biomedical Science *

Four steps to exam success ix
Chapter 1 Introduction to cell biology
1(11)
1.1 The discovery of cells
1(2)
1.2 Classification of organisms
3(5)
1.3 Evolution of cells
8(1)
1.4 Composition of cells
9(3)
Chapter 2 Methods of studying cells
12(33)
2.1 Culturing cells
12(7)
2.2 Flow cytometry or cell sorting
19(1)
2.3 Examining cells by microscopy
20(13)
2.4 Cell fractionation
33(10)
2.5 Studying biological molecules
43(2)
Chapter 3 Biological membranes
45(41)
3.1 Components of membranes
46(1)
3.2 Structure of membranes
47(10)
3.3 Structure of archaeal membranes
57(1)
3.4 Membrane asymmetry
57(3)
3.5 Functions of the membrane lipid bilayer
60(1)
3.6 Roles of biological membranes
61(25)
Chapter 4 Structure and activities of prokaryotic cells
86(25)
4.1 Prokaryotic cell walls
87(4)
4.2 Bacterial cytoplasmic membrane
91(7)
4.3 Prokaryotic cytoplasm
98(3)
4.4 Nucleoid and prokaryotic DNA packaging
101(1)
4.5 Prokaryotic genomes
102(2)
4.6 Prokaryotic surface structures
104(1)
4.7 Bacterial motility
105(6)
Chapter 5 Molecular biology of the prokaryotes
111(34)
5.1 Reproduction of prokaryotic cells
111(1)
5.2 Binary division in bacteria
112(9)
5.3 Replication in archaea
121(1)
5.4 Key points of gene expression
122(1)
5.5 Transcription in bacteria
123(4)
5.6 Transcription in archaea
127(1)
5.7 Post-transcriptional modifications
128(1)
5.8 Translation in prokaryotes
129(6)
5.9 Translation in bacteria
135(7)
5.10 Translation in archaea
142(3)
Chapter 6 The nucleus
145(31)
6.1 Chromosomes and chromatin
147(5)
6.2 Replication of nuclear DNA
152(5)
6.3 Transcription in the nucleus
157(3)
6.4 Pre-mRNA processing
160(4)
6.5 Nucleoli and other intranuclear inclusions
164(2)
6.6 Nuclear envelope and nuclear pores
166(8)
6.7 Nuclear skeleton
174(1)
6.8 Evolution of the nucleus
174(2)
Chapter 7 The cytosol and cytoskeleton
176(27)
7.1 Composition of the cytosol
176(2)
7.2 Key functions of the cytosol
178(12)
7.3 The cytoskeleton
190(13)
Chapter 8 The endoplasmic reticulum
203(16)
8.1 Structure of the endoplasmic reticulum
204(3)
8.2 Key activities of the smooth endoplasmic reticulum
207(4)
8.3 Key activities of the rough endoplasmic reticulum
211(8)
Chapter 9 Golgi apparatus, the endosomal-lysosomal system, and vacuoles
219(19)
9.1 Structure of the Golgi apparatus
219(2)
9.2 Formation of the Golgi apparatus
221(2)
9.3 Movement through a Golgi stack
223(1)
9.4 Key roles of the Golgi apparatus
224(3)
9.5 Lysosomes
227(7)
9.6 Vacuoles
234(4)
Chapter 10 Chloroplasts and photosynthesis
238(26)
10.1 Chloroplast structure
240(2)
10.2 Mechanism of photosynthesis in plants
242(16)
10.3 Other chloroplast functions
258(1)
10.4 Evolution and development of chloroplasts
259(5)
Chapter 11 Mitochondria, hydrogenosomes, and mitosomes
264(24)
11.1 Key functions of mitochondria
267(11)
11.2 Evolutionary origins of mitochondria
278(6)
11.3 Hydrogenosomes
284(2)
11.4 Mitosomes
286(2)
Chapter 12 Microbodies
288(12)
12.1 Key features of peroxisomes
289(1)
12.2 Key activities of peroxisomes
290(4)
12.3 Key features of glyoxysomes
294(2)
12.4 Glycosomes
296(4)
Chapter 13 Eukaryotic cell walls
300(17)
13.1 Plant cell walls
302(10)
13.2 Algal cell walls
312(1)
13.3 Fungal cell walls
313(1)
13.4 Yeast cell walls
314(3)
Chapter 14 Extracellular matrix and connective tissues
317(21)
14.1 Key functions of the extracellular matrix
319(1)
14.2 Major cells of the extracellular matrix
319(1)
14.3 Key glycoproteins and proteins of the extracellular matrix
320(13)
14.4 Connective tissues
333(5)
Chapter 15 Cell signalling
338(45)
15.1 Local and long-distance signalling
339(2)
15.2 Signalling molecules
341(6)
15.3 Receptors and second messengers
347(6)
15.4 Examples of cell signal transduction pathways
353(17)
15.5 Neuronal signalling
370(13)
Chapter 16 Eukaryotic cell cycle, mitosis, and meiosis
383(29)
16.1 The eukaryotic cell cycle
385(9)
16.2 Variations on mitotic cell division
394(9)
16.3 Control of the cell cycle
403(7)
16.4 Evolution of mitosis
410(2)
Chapter 17 Cell death
412(16)
17.1 Apoptosis and necrosis
412(4)
17.2 Roles of apoptosis
416(3)
17.3 Inducing apoptosis
419(9)
Chapter 18 Viruses
428(23)
18.1 Discovery of viruses
429(1)
18.2 Sizes and structures of virus particles
430(2)
18.3 Different types of virus symmetries
432(4)
18.4 Nomenclature and classification of viruses
436(4)
18.5 Replication of viruses
440(9)
18.6 Origin and evolution of viruses
449(2)
Index 451
Dr Qiuyu Wang is a Senior Lecturer at Manchester Metropolitan University. Her major research interests are cancer biology and stem cell biology. She teaches many aspects of Molecular and Cellular Biology, and has written several textbooks on the Biological Sciences for Chinese readers and is co-editor of Biomedical Science Practice (OUP, 2010).



Dr Chris Smith was formerly a Senior Lecturer in Biochemistry at the Manchester Metropolitan University, where he taught biochemistry and cell & molecular biology at all levels. He has written and edited several undergraduate texts, including contributions to Biomedical Science Practice (OUP, 2010) and Clinical Biochemistry (OUP, 2010).



Emma Davis studied Biochemistry at UMIST and is a Quality Assurance Technician for the UK DNA Banking Network at the University of Manchester. She is currently involved in research to standardize biobank processes and develop techniques to ensure the quality of biological samples for research purposes. These interests have resulted in published research papers and oral presentations.