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Cells content

The red cells also may be filtered to reduce the white cell content. This technique is needed if there is a chance of the patient developing graft versus host disease (GvHD), ie, transfused white cells attack the cells of the patient. [Pg.520]

Considerable work has been done to try to explain why quats are antimicrobial. The following sequence of steps is beheved to occur in the attack by the quat on the microbial cell (/) adsorption of the compound on the bacterial cell surface (2) diffusion through the cell wall (J) binding to the cytoplasmic membrane (4) dismption of the cytoplasmic membrane (5) release of cations and other cytoplasmic cell constituents (6) precipitation of cell contents and death of the cell. [Pg.130]

Now, the heat conducted from the cell will be considered to be controlled by the radial conductivity of the total cell contents and not by the cell walls alone. Furthermore, the axial conductivity of the cell will be ignored as its contribution to heat loss will be several orders of magnitude less than that lost by radial convection. [Pg.223]

Non-mechanical methods are also used to break down the cell wall and to release intracellular enzymes or proteins. Listed below are several methods that fracture cell walls and release cell content ... [Pg.180]

HMG-CoA REDUCTASE INHIBITORS AND FlBRIC ACID DERIVATIVES. The antihyperlipidemic drugp, particularly die HMG-CoA reductase inhibitors, have been associated with skeletal muscle effects leading to rhab-domyolysis. Rhabdomyolysis is a very rare condition in which muscle damage results in die release of muscle cell contents into die bloodstream. Rhabdomyolysis may precipitate renal dysfunction or acute renal failure The nurse is alert for unexplained muscle pain, muscle tenderness, or weakness, especially if tiiey are accompanied by malaise or fever. These symptoms should be reported to die primary health care provider because the drug may be discontinued. [Pg.413]

Fig. 10. (continued)—(b) A projection of the unit cell contents along the c-axis, with a down and b across the page. A water molecule (crossed circle) per trisaccharide bridges three surrounding helices. [Pg.342]

Fig. II. (continued)—(b) A view of the unit-cell contents down the c-axis and remaining four helices, which surround a cluster of 6 water molecules (crossed circles) per disaccharide in the middle. Fig. II. (continued)—(b) A view of the unit-cell contents down the c-axis and remaining four helices, which surround a cluster of 6 water molecules (crossed circles) per disaccharide in the middle.
Fig. 18.—Antiparallel packing arrangement of 2-fold poly(ManA) (15) helices, (a) Stereo view of two unit cells roughly normal to the hoplane. The helix at the center (filled bonds) is antiparallel to the two in the back (open bonds). Intrachain hydrogen bonds stabilize each helix. Association of helices through direct hydrogen bonds involve the carboxylate groups for parallel chains, but involve the axial hydroxyl groups for antiparallel chains, (b) A view of the unit-cell contents down the t-axis highlights the interactions between the helices. Fig. 18.—Antiparallel packing arrangement of 2-fold poly(ManA) (15) helices, (a) Stereo view of two unit cells roughly normal to the hoplane. The helix at the center (filled bonds) is antiparallel to the two in the back (open bonds). Intrachain hydrogen bonds stabilize each helix. Association of helices through direct hydrogen bonds involve the carboxylate groups for parallel chains, but involve the axial hydroxyl groups for antiparallel chains, (b) A view of the unit-cell contents down the t-axis highlights the interactions between the helices.
Fig. 21.—Structure of the 6-fold anhydrous curdlan III (19) helix, (a) Stereo view of a full turn of the parallel triple helix. The three strands are distinguished by thin bonds, open bonds, and filled bonds, respectively. In addition to intrachain hydrogen bonds, the triplex shows a triad of 2-OH - 0-2 interchain hydrogen bonds around the helix axis (vertical line) at intervals of 2.94 A. (b) A c-axis projection of the unit cell contents illustrates how the 6-0H - 0-4 hydrogen bonds between triple helices stabilize the crystalline lattice. Fig. 21.—Structure of the 6-fold anhydrous curdlan III (19) helix, (a) Stereo view of a full turn of the parallel triple helix. The three strands are distinguished by thin bonds, open bonds, and filled bonds, respectively. In addition to intrachain hydrogen bonds, the triplex shows a triad of 2-OH - 0-2 interchain hydrogen bonds around the helix axis (vertical line) at intervals of 2.94 A. (b) A c-axis projection of the unit cell contents illustrates how the 6-0H - 0-4 hydrogen bonds between triple helices stabilize the crystalline lattice.
Two helices are packed antiparallel in the orthorhombic unit cell. Association of the helices occurs through a series of periodic carboxylate potassium water - carboxylate interactions. An axial projection of the unit-cell contents (Fig. 23b) shows that the helices and guest molecules are closely packed. This is the first crystal structure of a polysaccharide in which all the guest molecules in the unit cell, consistent with the measured fiber density, have been experimentally located from difference electron-density maps. The final / -value is 0.26 for 54 reflections, of which 43 are observed, and it is based on normal scattering factors.15... [Pg.364]

Fig. 24. (continued)—(b) An axial projection of the unit cell contents. The double helix at each corner can be either up- or down-pointing," in terms of the X-ray data. All are, however, up in this diagram so that a calcium ion (crossed circle) is connected to the sulfate groups in three surrounding... [Pg.368]

Fig.1. Differentiation ofT cells content of micromilieu and several cytokines and other cofactors released from DCs are essential for the differentiation of naive T cells into T-helper(Th)l,Th2,Th9,Thl7 effectorT-cell subsets. [Pg.24]

In general, spinel and other chalcogen-based thiospinels with Z=8 leads to the total unit cell content of 8 and 16 (8 a and 16 d sites) cations and 32 anions in the 32 e site corresponding to the formula A8B15O32. In spinels, the AX4 tet-rahedra share comers with BXg octahedra and the octahedra are Hnked together by sharing edges (Fig. 15.1). [Pg.225]

The recorder response F(v) is related to the absorbance of the detector cell contents A (v) by... [Pg.56]

Although root-cap cells may have some function in the rhizosphere (36) and most cell contents are covered by the term root exudates, it is difficult to see how root debris might have a function that directly benefits the growth of... [Pg.23]

Root debris zymes, siderophores, allelocheini-cals, etc. Root-cap cells, cell contents, etc. [Pg.23]


See other pages where Cells content is mentioned: [Pg.386]    [Pg.1366]    [Pg.941]    [Pg.371]    [Pg.86]    [Pg.2143]    [Pg.679]    [Pg.224]    [Pg.582]    [Pg.70]    [Pg.525]    [Pg.28]    [Pg.38]    [Pg.41]    [Pg.292]    [Pg.345]    [Pg.352]    [Pg.389]    [Pg.97]    [Pg.283]    [Pg.288]    [Pg.941]    [Pg.1451]    [Pg.157]    [Pg.142]    [Pg.151]    [Pg.157]    [Pg.179]    [Pg.181]    [Pg.218]    [Pg.448]    [Pg.443]    [Pg.215]   


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Bacteria, cell membrane nucleic acid content

Bacteria, cell membrane protein content

Beta cell content

Bone marrow progenitor cell content

Cell content equation

Cell content names

Cell content number

Cells element content 132

Cells malignant, sialic acid content

Cells nucleotide content

Closed cell content

Content of the unit cell

Contents Alkaline Electrolyte Fuel Cells

High content screening cell culture

Lithium cells energy content

Microbial cells water content

Moisture content cell wall

Mucilage cell content

Open cell content

Protoplasmic cell contents

The unit cell content

Transformed cells sialic acid content

Typical cells content

Unit cell: content, density

Unit cells contents

Water content in cells

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