| 000 -УДИРДЛАГА |
|---|
| Удирдлага |
09858nam a2201441 4500 |
| 003 - ХЯНАЛТЫН ТОО ТОДОРХОЙЛОГЧ |
|---|
| Код |
MN-UlNUM |
| 005 - БИЧИЛТ ХИЙСЭН ОГНОО |
|---|
| Тухайн бичилтийг бичсэн засварласан сүүлийн огноо |
20240524191456.0 |
| 008 - ЕРӨНХИЙ МЭДЭЭЛЭЛ |
|---|
| Ерөнхий мэдээлэл |
240520s2021 enkjo||| |||| 00| | eng d |
| 020 ## - ISBN |
|---|
| ISBN |
9780128186312 |
| 040 ## - БИЧЛЭГ ҮҮСГЭГЧ БАЙГУУЛЛАГА |
|---|
| Бичлэг үүсгэгч номын сангийн код |
МУИС-ийн номын сан |
| 084 ## - ББК АНГИЛАЛ |
|---|
| Нэмэлт тусгалт |
Сурах бичиг |
| Мэдлэгийн ялгаа |
2 - Байгалийн шинжлэл |
| ББК ангилал |
28.59 |
| Зохиогчийн гурван тэмдэгт |
H 50 |
| 100 ## - ЗОХИОГЧ |
|---|
| Зохиогчийн нэр |
Heldt H.W., Piechulla B |
| 240 ## - Шифр - Номын наалт, тайланд хэрэглэх |
|---|
| Ангилалын дугаар /Зохиогчийн 3 тэмдэгт |
28.59 H 50 |
| 245 ## - ҮНДСЭН ГАРЧИГ |
|---|
| Номын нэр |
Plant biochemistry |
| 250 ## - ДАХИН ХЭВЛЭЛТ |
|---|
| Дахин гаралтын дугаар |
5th ed |
| 260 ## - ГАРАЛТЫН МЭДЭЭ |
|---|
| Хэвлэгдсэн газар |
London |
| Хэвлэлийн газар |
Academic Press, an imprint of Elsevier |
| Хэвлэгдсэн он |
2021 |
| 300 ## - МАТЕРИАЛЫН ТОДОРХОЙЛОЛТ |
|---|
| хуудасны тоо |
609 |
| 500 ## - Тайлбар |
|---|
| Дансны дугаар |
ГФ 20705 |
| 505 ## - Агуулгын тэмдэглэгээ |
|---|
| Агуулгын тэмдэглэгээ |
Plant Biochemistry, Fifth Edition, enables students to gain basic knowledge of the entire field, from photosynthesis to genetic engineering and its many commercial applications. Topics include cell structure and function of isoprenoids, phenylpropanoids and other secondary metabolites, and plant growth regulation and development. The text covers recent research findings and identifies areas of future research. This book is suitable for graduate students and advanced undergraduates in plant physiology, plant pathology, plant cell biology, and other plant sciences, researchers in industries actively involved in agribusiness, other biotechnology enterprises, and researchers in agronomy, agriculture, plant development and related areas. |
| 546 ## - ХЭЛНИЙ ТУХАЙ МЭДЭЭ |
|---|
| Хэл |
Англи хэл дээр, |
| 653 ## - Түлхүүр үг |
|---|
| Түлхүүр үг |
botany |
| 653 ## - Түлхүүр үг |
|---|
| Түлхүүр үг |
botanical chemistry |
| 653 ## - Түлхүүр үг |
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| Түлхүүр үг |
plant molecular biology |
| 653 ## - Түлхүүр үг |
|---|
| Түлхүүр үг |
metabolism |
| 653 ## - Түлхүүр үг |
|---|
| Түлхүүр үг |
plant physiology |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Leaf Cells Consist of Several Metabolic Compartments |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
The Cell Wall Gives the Plant Cell Mechanical Stability |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
The cell wall consists mainly of carbohydrates and proteins |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Plasmodesmata connect neighboring cells |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Vacuoles Have Multiple Functions |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Plastids Have Evolved From Cyanobacteria |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Functionally intact cell organelles can be isolated from plant cells |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Mitochondria Originate From Endosymbionts |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Peroxisomes Perform Fatty Acid Oxidation, Respiration, and Reactive Oxygen Species Metabolism |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
The Endoplasmic Reticulum and Golgi Apparatus Form a Network for the Distribution of Biosynthesis Products |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Various Transport Processes Facilitate the Exchange of Metabolites Between Different Compartments |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Translocators catalyze the specific transport of metabolic substrates and products |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Metabolite transport is achieved by a conformational change to the translocator |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Aquaporins make cell membranes not only permeable for water |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
lon channels exhibit a very high transport capacity |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Porins consist of ß-sheet structures |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Solar Power and Photosynthesis Are the Basis of Life on Earth |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
The Origin of Photosynthesis |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Pigments Capture Energy From Sunlight The energy content of light depends on its wavelength |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Chlorophyll is the main photosynthetic pigment Light Absorption Excites the Chlorophyll Molecule |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Antennas Are Required to Capture Light How the excitation energy of the photons is captured in the antennas and transferred to the reaction centers |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
The function of an antenna is illustrated by the antenna of photosystem lI |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Phycobilisomes enable cyanobacteria and red algae to carry out photosynthesis in dim light |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Photosynthesis Is an Electron Transport Process |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
The Photosynthetic Machinery Is Constructed From Complex Modules |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
A Reductant and an Oxidant Are Formed During Photosynthesis |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Elucidation of the 3D Structure of a Photosynthetic Reaction Center of Purple Bacteria Was Resolved by X-Ray Crystallography |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
X-ray structure analysis |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
The reaction center has a symmetric structure |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
How does a reaction center function? |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Two Photosynthetic Reaction Centers Are Arranged in Tandem in Photosynthesis of Plants |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Water Is Oxidized by Photosystem II |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Herbicides used in mechanized agriculture target photosystems |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
The Cytochrome b&/f Complex Mediates Electron Transport Between Photosystem Il and Photosystem I |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Iron atoms in cytochromes and iron-sulfur centers function as redox carriers |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Electron transport by the cytochrome b/f complex is coupled to a proton transport |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
he number of protons pumped through the cyt be/f complex can be doubled by a Q-cycle |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
The Product of Photosystem I Is Reduced Nicotinamide Adenine Dinucleotide Phosphate (NADPH) |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
The light energy-driven cyclic electron transport of photosystem I produces only adenosine triphosphate |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
In the absence of other acceptors electrons can be transferred from photosystem I to oxygen |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Regulatory Processes Control the Distribution of the Captured Photons Between the Two Photosystems |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
Excess light energy is eliminated as heat |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Adenosine Triphosphate Is Generated by Photosynthesis |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
A Proton Gradient Serves as an Energy-Rich Intermediate State During Adenosine |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
The Electron Chemical Proton Gradient Can Be Dissipated by Uncouplers to Heat |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
H*-ATP Biosynthases From Bacteria, Chloroplasts, and Mitochondria Have a Common Basic Structure |
| 740 ## - НОМЫН ГАРЧИГ |
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| Гарчиг |
H+-ATP synthase of chloroplasts is regulated by light |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
V-ATPase Is related to the F-ATP synthase |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
The Biosynthesis of Adenosine Triphosphate Depends on Conformation Change of the Protein |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Mitochondria Are the Power Station of the Cell |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Biological Oxidation Is Preceded by Degradation of Substrates to Form Bound Hydrogen and CO2 |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Mitochondria Are the Sites of Cell Respiration |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Mitochondria Are the Sites of Cell Respiration |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Biological Oxidation Takes Place in the Matrix |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Pyruvate is oxidized by a multienzyme complex |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Acetate is completely oxidized in the tricarboxylic acid cycle |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
A loss of intermediates of the tricarboxylic acid cycle is replenished by anaplerotic reactions |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
How Much Energy Can Be Gained by the Oxidation of NADH? |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
The Mitochondrial Respiratory Chain Shares Common Features With the Photosynthetic Electron Transport Chain |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
The complexes of the mitochondrial respiratory chain |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Electron transport of the respiratory chain Is coupled to the biosynthesis of ATP via proton transport |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Mitochondrial proton transport results in the formation of a membrane potential |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Mitochondrial ATP biosynthesis serves the energy demand of the cytosol |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Plant Mitochondria Fulfill Special Metabolic Functions |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Mitochondria can oxidize surplus NADH without the formation of ATP |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Cytosolic NADH and NADPH can be oxidized by the respiratory chain |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Compartmentation of Mitochondrial Metabolism Requires Specific Membrane Translocators |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
The Calvin-Benson-Bassham Cycle Catalyzes Photosynthetic CO2 Assimilation |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Carboxylation, Reduction, and Acceptor Regeneration Are Three Major Steps in CO2 Assimilation |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Ribulose Bisphosphate Carboxylase/Oxygenase (Rubisco) Catalyzes Two Reactions Simultaneously |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
There is no net CO, fixation at the compensation point |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
The Reduction of 3-Phosphoglycerate Yields Triose Phosphate |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
The CO2 Acceptor Ribulose 1,5-Bisphosphate Is Regenerated From Triose Phosphate |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Reductive and Oxidative Pentose Phosphate Pathways Are Present in Chloroplasts |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Reduced Thioredoxins Transmit the Signal "Illumination' and Activate or Inactivate Enzymes |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Multiple regulatory processes tune the reactions of the reductive pentose phosphate pathway |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Photorespiratory Pathway Recycles Phosphoglycolate |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Ribulose 1,5-Bisphosphate Is Recovered by Recycling 2-Phosphoglycolate |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Peroxisomes Need External Reducing Equivalents for the Reduction of Hydroxypyruvate |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Reassimilation of NH4+ Released in the Photorespiratory Pathway in Chloroplasts |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Photosynthesis Needs the Consumption of Water |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Polysaccharides Are Storage and Transport Forms of Carbohydrates Produced by Photosynthesis |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Nitrate Assimilation Is Essential for the Biosynthesis of Organic Matter |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Nitrogen Fixation Enables Plants to Use the Nitrogen in the Air for Growth |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Products of Nitrogen Fixation and Nitrate Assimilation Are Deposited as Storage Proteins |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Sulfate Assimilation Enables the Synthesis of Sulfur-Containing Compounds |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Phloem Transport Distributes Photoassimilates to Various Sites of Consumption and Storage |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Lipids Are Membrane Constituents and Function as Carbon Stores |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Special Metabolites Fulfill Specific Biological and Ecological Functions in Plants |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
A Large Diversity of Isoprenoids Has Multiple Functions in Plants |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Phenylpropanoids Comprise a Multitude of Plant-Specialized Metabolites and Cell Wall Components |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Multiple Signals Regulate the Growth and Development of Plant Organs and Enable Their Adaptation to Environmental Conditions |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
A Plant Cell Has Three Different Genomes |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Biosynthesis, Processing, and Degradation of Plant Proteins |
| 740 ## - НОМЫН ГАРЧИГ |
|---|
| Гарчиг |
Biotechnology Alters Plants to Meet the Requirements of Agriculture, Nutrition, and Industry |
| 942 ## - ЭЛЕМЕНТИЙН ТӨРӨЛ |
|---|
| Зүйлийн төрөл |
Ном |
