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Cytoplasm 132

Actin filaments are dynamic polymers whose assembly and disassembly in the cell cytoplasm drives shape changes (Small, 1989), cell locomotion (Theriot et al, 1992), and chemotactic migration (Theriot et al., 1992)Devreotes and... [Pg.46]

Unlike DNA most of which is m the nucleus RNA is found mostly m the cell s mam compartment the cytoplasm There are three different kinds of RNA which differ sub stantially from one another m both structure and function... [Pg.1172]

Fig. 1. The GP Ib-IX-V complex. The complex consists of seven transmembrane polypeptides denoted GP Iba (mol wt 145,000), GP IbP (mol wt 24,000), GPIX (mol wt 17,000) and GP V (mol wt 82,000), in a stoichiometry of 2 2 2 1. The hatched region represents the plasma membrane. The area above the hatched region represents the extracellular space that below represents the cytoplasm. The complex is a major attachment site between the plasma membrane and the cytoskeleton. Two molecules associated with the cytoplasmic domain are depicted a 14-3-3 dimer, which may mediate intracellular signaling, and actin-binding protein, which connects the complex to the cortical cytoskeleton and fixes its position and influences its function. Fig. 1. The GP Ib-IX-V complex. The complex consists of seven transmembrane polypeptides denoted GP Iba (mol wt 145,000), GP IbP (mol wt 24,000), GPIX (mol wt 17,000) and GP V (mol wt 82,000), in a stoichiometry of 2 2 2 1. The hatched region represents the plasma membrane. The area above the hatched region represents the extracellular space that below represents the cytoplasm. The complex is a major attachment site between the plasma membrane and the cytoskeleton. Two molecules associated with the cytoplasmic domain are depicted a 14-3-3 dimer, which may mediate intracellular signaling, and actin-binding protein, which connects the complex to the cortical cytoskeleton and fixes its position and influences its function.
The influences of herbicides on cell division fall into two classes, ie, dismption of the mitotic sequence and inhibition of mitotic entry from interphase (G, S, G2). If ceU-cycle analyses indicate increases in abnormal mitotic figures, combined with decreases in one or more of the normal mitotic stages, the effect is upon mitosis. Mitotic effects usually involve the microtubules of the spindle apparatus in the form of spindle depolymerization, blocked tubulin synthesis, or inhibited microtubule polymerization (163). Alkaloids such as colchicine [64-86-8J,viahla.stiae [865-21-4] and vincristine [57-22-7] dismpt microtubule function (164). Colchicine prevents microtubule formation and promotes disassembly of those already present. Vinblastine and vincristine also bind to free tubulin molecules, precipitating crystalline tubulin in the cytoplasm. The capacities of these dmgs to interfere with mitotic spindles, blocking cell division, makes them useful in cancer treatment. [Pg.46]

Synthesis. Histamine [51-45-6] 2-(4-imidazolyl)ethylarnine (1) is formed by decarboxylation of histidine by the enzyme L-histidine decarboxylase (Fig. 1). Most histamine is stored preformed in cytoplasmic granules of mast cells and basophils. In humans mast cells are found in the loose connective tissue of all organs, especially around blood and lymphatic vessels and nerves. These cells are most abundant in the organs expressing allergic diseases the skin, respiratory tract, and gastrointestinal tract. [Pg.135]

Microfilaments and Microtubules. There are two important classes of fibers found in the cytoplasm of many plant and animal ceUs that are characterized by nematic-like organization. These are the microfilaments and microtubules which play a central role in the determination of ceU shape, either as the dynamic element in the contractile mechanism or as the basic cytoskeleton. Microfilaments are proteinaceous bundles having diameters of 6—10 nm that are chemically similar to actin and myosin muscle ceUs. Microtubules also are formed from globular elements, but consist of hoUow tubes that are about 30 nm in diameter, uniform, and highly rigid. Both of these assemblages are found beneath the ceU membrane in a linear organization that is similar to the nematic Hquid crystal stmcture. [Pg.202]

Several enzymes, none of which are completely specific for the enkephalins, are known to cleave Leu- and Met-enkephalin at various peptide bonds. The main enzymes that degrade enkephalin are 2inc metaHopeptidases. The first enkephalin-degrading enzyme to be identified, an aminopeptidase which cleaves the amino terminal Tyr-Gly bond (179), has been shown to be aminopeptidase-N (APN) (180). It is a cytoplasmic enzyme which is uniformly distributed throughout the brain. The increased analgesic activity of synthetic enkephalins substituted by D-amino acids at position 2, eg,... [Pg.451]

Biochemically, most quaternary ammonium compounds function as receptor-specific mediators. Because of their hydrophilic nature, small molecule quaternaries caimot penetrate the alkyl region of bdayer membranes and must activate receptors located at the cell surface. Quaternary ammonium compounds also function biochemically as messengers, which are generated at the inner surface of a plasma membrane or in a cytoplasm in response to a signal. They may also be transferred through the membrane by an active transport system. [Pg.378]

The cytoplasm of the cell contains most of the RNA, which may account for 7—12% of total cell soHds, mostiy as ribosomes. Lipid globules are also found in the cytoplasm, as well as carbohydrate storage materials in the form of glycogen and trehalose, which may account for up to 23% or more of cell sohds, depending on culture and metaboHc conditions. [Pg.386]

Extraction of proteia requires breaking the cell wall to release the cytoplasmic contents. This can be achieved by high speed ball or coUoid mills or by high pressure (50—60 Mpa) extmsion. Proteia is extracted by alkaline treatment followed by precipitation after enzymatic hydrolysis of nucleic acids. Although the proteia can be spun iato fibers or texturized, such products are more expensive than those derived from soybean and there is no market for them. [Pg.394]

Fig. 4. Comparison of the three types of tetracycline resistance where T represents the tetracycline molecule O, a tetracycline transporter and aaa/, the ribosome A shows the effect of tetracycline exposure on a sensitive cell B, the efflux of resistance where a cytoplasmic membrane protein ( D) pumps tetracycline out of the cell as fast as the tetracycline transporter takes it up C, the ribosomal protection type of resistance where the ribosome is modified by ( ) to block productive binding and D, the tetracycline modification type of resistance where t is an inactive form of tetracycline. Reproduced with... Fig. 4. Comparison of the three types of tetracycline resistance where T represents the tetracycline molecule O, a tetracycline transporter and aaa/, the ribosome A shows the effect of tetracycline exposure on a sensitive cell B, the efflux of resistance where a cytoplasmic membrane protein ( D) pumps tetracycline out of the cell as fast as the tetracycline transporter takes it up C, the ribosomal protection type of resistance where the ribosome is modified by ( ) to block productive binding and D, the tetracycline modification type of resistance where t is an inactive form of tetracycline. Reproduced with...
Calcium and Vascular Smooth Muscle Contraction. Calcium acts on a number of sites associated with the control of the cytoplasmic calcium concentration. Vascular smooth muscle contraction can be initiated by the opening of the slow calcium channel aUowing influx of extraceUular calcium through the sarcolemmal membrane into the cytoplasmic compartment. The iatraceUnlar calcium concentration increases to 1 x 10 Af, a threshold concentration necessary to initiate contraction. [Pg.125]


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Activation of Cytoplasmic Tyrosine Kinases

Activation of the Cytoplasmic Apo-Receptor Complexes

Anti-neutrophil cytoplasmic antibodies

Anti-neutrophil cytoplasmic antibodies ANCA)

Antimicrobial cytoplasmic membrane

Antineutrophil cytoplasmic antibodies

Antineutrophil cytoplasmic antibodies ANCA)

Antineutrophil cytoplasmic antibodies vasculitis associated with

Antineutrophilic cytoplasmic antibodies

Bacteria, lactic acid cytoplasm

Bacteriorhodopsin cytoplasmic surface structure

Biological cells Cytoplasm

CRABP (cytoplasmic retinoic acid-binding

Cadmium cytoplasmic protein

Calcium cytoplasm

Calcium removal, cytoplasmic

Calcium, cytoplasmic

Cancer cell cytoplasm

Carbohydrate-binding proteins lectins, cytoplasmic

Cells cytoplasm elements 132

Cells cytoplasm organic pathways 152

Control of Nuclear Function by Cytoplasmic Factors

Crude cytoplasmic lysate

Cytoplasm During Cleavage of the Oocyte and its Morphogenetic Importance (Ooplasmic Segregation)

Cytoplasm NADPH

Cytoplasm activity

Cytoplasm apoptosis, programmed cell death

Cytoplasm biochemical function

Cytoplasm coagulation

Cytoplasm components, identification

Cytoplasm defined

Cytoplasm definition

Cytoplasm diffusion

Cytoplasm enzymes

Cytoplasm eukaryotic

Cytoplasm fatty acid synthesis

Cytoplasm folates

Cytoplasm genetic information

Cytoplasm glycolysis

Cytoplasm liposome fusion

Cytoplasm loading

Cytoplasm nuclear interactions

Cytoplasm of yeast

Cytoplasm organic pathways 152

Cytoplasm particles

Cytoplasm polysaccharide precursor

Cytoplasm prokaryotic

Cytoplasm protein synthesis

Cytoplasm riboflavin

Cytoplasm structure

Cytoplasm synthesis

Cytoplasm, DNA synthesis

Cytoplasm, biosynthesis

Cytoplasm, cell

Cytoplasm, phosphatides

Cytoplasm,bacteria

Cytoplasm-free cell envelopes

Cytoplasmic

Cytoplasmic Bodies

Cytoplasmic CAR retention protein

Cytoplasmic Ca2+ levels

Cytoplasmic DNA

Cytoplasmic RNA

Cytoplasmic Tyrosine Kinases

Cytoplasmic acidification

Cytoplasmic acidosis

Cytoplasmic aconitase

Cytoplasmic alkalinization

Cytoplasmic alteration, viruses

Cytoplasmic antigens

Cytoplasmic caps

Cytoplasmic cleavage

Cytoplasmic components, diffusion

Cytoplasmic concentration

Cytoplasmic copper chaperone

Cytoplasmic crescents

Cytoplasmic delivery

Cytoplasmic dense bodies

Cytoplasmic domain

Cytoplasmic enzyme

Cytoplasmic extension

Cytoplasmic extract

Cytoplasmic extract applications

Cytoplasmic extract centrifugation

Cytoplasmic extract homogenization

Cytoplasmic extract materials

Cytoplasmic filaments

Cytoplasmic fraction

Cytoplasmic framework

Cytoplasmic free mRNP particles

Cytoplasmic gels

Cytoplasmic glycosylation

Cytoplasmic gradient

Cytoplasmic guanylate cyclase

Cytoplasmic inclusions

Cytoplasmic incompatibility

Cytoplasmic induction

Cytoplasmic inhibitor protein

Cytoplasmic layer

Cytoplasmic leaflet

Cytoplasmic linker proteins

Cytoplasmic lipid droplets

Cytoplasmic location

Cytoplasmic loop

Cytoplasmic loop domains

Cytoplasmic machinery, plasma cell with

Cytoplasmic male sterility

Cytoplasmic matrix

Cytoplasmic membrane

Cytoplasmic membrane active transport system

Cytoplasmic membrane activity

Cytoplasmic membrane bacteria

Cytoplasmic membrane disruption

Cytoplasmic membrane fluidity

Cytoplasmic membrane fungal

Cytoplasmic membrane oligosaccharides

Cytoplasmic membrane pathways

Cytoplasmic membrane permeability

Cytoplasmic membrane porins

Cytoplasmic membrane vesicles

Cytoplasmic membrane, bacterial

Cytoplasmic membrane, bacterial channels

Cytoplasmic membrane, bacterial functions

Cytoplasmic membrane, bacterial group translocators

Cytoplasmic membrane, bacterial transport across

Cytoplasmic pH, regulation

Cytoplasmic pathway

Cytoplasmic peptidases

Cytoplasmic phosphate

Cytoplasmic polyhedrosis virus

Cytoplasmic proteins

Cytoplasmic proteins in apoptosis

Cytoplasmic receptors

Cytoplasmic region

Cytoplasmic repression

Cytoplasmic response regulator

Cytoplasmic retention signals

Cytoplasmic reticulum

Cytoplasmic sampling

Cytoplasmic second messengers

Cytoplasmic streaming

Cytoplasmic superoxide

Cytoplasmic superoxide dismutase

Cytoplasmic surfaces

Cytoplasmic tight junctional proteins

Cytoplasmic tyrosine kinase-linked receptors

Cytoplasmic units

Cytoplasmic vesicles

Cytoplasmic viscosity

Cytoplasmic-genetic male sterility

Cytoplasmic-retinol binding protein

Distal cytoplasm

Embryo Cytoplasmic extract

Endocytosis cytoplasmic delivery

Equilibrium of dehydrogenases in cytoplasm

Exuded cytoplasm

FL Can Deliver Materials Into Cytoplasm

Fatty acid cytoplasmic

Fatty acid metabolism cytoplasmic

FhuB protein cytoplasmic membrane

Focal cytoplasmic degradation

Fungi cytoplasmic membrane

Genome-cytoplasm model

Glial cytoplasmic inclusions

Glycerol-3-phosphate dehydrogenase cytoplasmic

Glycogen particles in cytoplasm

Glycoproteins cytoplasmic

Gram-negative bacteria cytoplasmic membrane

Gram-positive bacteria cytoplasmic membrane

Human immunodeficiency virus, cytoplasmic

Inheritance cytoplasmic

Inhibition of Cytoplasmic Membranes

Intercellular cytoplasmic processes

Intracellular cytoplasm

Lipid-binding proteins cytoplasmic

Malate dehydrogenase cytoplasmic

Membranes cytoplasmic membrane

Membranous cytoplasmic bodies

Metal ions cytoplasmic

Microtubules, cytoplasmic

Mutation cytoplasmic

Neuron cytoplasm

Neuronal cytoplasmic inclusions

Neuronal cytoplasmic protein

Nuclear-cytoplasmic trafficking

Nuclear/cytoplasmic ratio

Nucleus and cytoplasm

Oilseed rape cytoplasm transfer

Organelles, Cytoplasmic

Oxaloacetate cytoplasm

PEPCK cytoplasmic

Perinuclear cytoplasm

Prokaryotic cells cytoplasmic domain

Protein cytoplasmic aconitase

Protein tyrosine kinases cytoplasmic domain

Protein tyrosine phosphatase Cytoplasmic

Proteins cytoplasmic gradients

Proteins in cytoplasm

Proximal cytoplasm

Release into cytoplasm

Ribosomes cytoplasmic

Subcellular analysis cytoplasm

Subcellular cytoplasm

Synthesis of cytoplasmic ribosomes

Targeting Cellular Cytoplasmic Structures

The Cancer Cell Cytoplasm

The Nature of Cytoplasmic Factors Controlling Nuclear Function

Transport asymmetry and the effect of cytoplasmic ATP

Tumors Cytoplasmic abnormalities

Tyrosine cytoplasmic domain

Yeast cells cytoplasm

Yeast cytoplasm

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