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Rowing

Figure 2 shows a typical example of the row data measured by this method The data exhibit a classic curves, namely velocity, contact force and depth of the indenter intrusion, obtained on polyvinyl chloride sample. [Pg.241]

The first equation (1) is the equation of state and the second equation (2) is derived from the measurement process. Finally, G5 (r,r ) is a row-vector that takes the three components of the anomalous ciurent density vector Je (r) = normal component of the induced magnetic field. This system is non hnear (bilinear) because the product of the two unknowns /(r) and E(r) is present. [Pg.328]

By means of a suitable software it is quite possible to qualify each drilling. At first a geometry check examines whether the drillings are present and in that case if they are positioned correctly. Furthermore each hole is examined whether the reached temperature level lies within a given threshhold. A typical error is shown in illustration 7. In both filmcooling rows locked holes are to be recognized. [Pg.404]

The scan area is recognized as a sequence of points set out in rows and columns and detected in a raster-like marmer under adjustable computer control [3]. [Pg.410]

The wall thickness estimation in tangential projection technique is based on the evaluation of profile plots along the pipe diameter as shown in fig. 1 (lowest row). [Pg.519]

Measure Wall Thickness This window is used for the dialog to calibrate the algorithm aceording formula (3) and for point wise measurements after calibration. The row Ideal indicates the nominal wall thickness used, IQI indicates the wall thickness values used for calibration and the detected optical density. Local can be used for noise reduction and compensation of geometric effects. [Pg.564]

The acquisition sequence is as follows a first acquisition calibration enables the acquisition operator to verify the data before storage. The row data, together with calibration files are transferred to the analysis program. The program transforms the row data into calibrated data, which is then analysed. [Pg.1008]

Near drum wastage is the most prevalent type of wastage documented. It cart be found anywhere in the generating bank but is most common on the wall tubes, in tlic row immediately next to soot blower lanes and in the hot and cold row s. Three types of near drum w astagc have been documented. [Pg.1036]

As usual, things become more complicated when studied in detail. Note that for 0/W(l 10) 0 varies with 6 the situation is shown more fully in Fig. XVIII-15. The authors speculate that variations in Dq and E have to do with a p(2 x 1) structure at low oxygen coverage, with O atoms occupying alternate rows of W atoms, the empty rows becoming occupied above 0 = 0.5. The consequence is that O—O interactions shift from being mostly attractive to being in part repulsive. [Pg.711]

Perhaps the most fascinating detail is the surface reconstruction that occurs with CO adsorption (see Refs. 311 and 312 for more general discussions of chemisorption-induced reconstructions of metal surfaces). As shown in Fig. XVI-8, for example, the Pt(lOO) bare surface reconstructs itself to a hexagonal pattern, but on CO adsorption this reconstruction is lifted [306] CO adsorption on Pd( 110) reconstructs the surface to a missing-row pattern [309]. These reconstructions are reversible and as a result, oscillatory behavior can be observed. Returning to the Pt(lOO) case, as CO is adsorbed patches of the simple 1 x 1 structure (the structure of an undistorted (100) face) form. Oxygen adsorbs on any bare 1 x 1 spots, reacts with adjacent CO to remove it as CO2, and at a certain point, the surface reverts to toe hexagonal stmcture. The presumed sequence of events is shown in Fig. XVIII-28. [Pg.737]

Each entry is the product of first applying the permutation at the top of the column and then applying the permutation at the left end of the row. [Pg.144]

Griffiths D 1987 Introduction to Elementary Particles (New York Flarper and Row)... [Pg.183]

Figure A3.10.10 STM image (55 x 55 mn ) of a Si(lOO) surface exposed to molecular bromine at 800 K. The dark areas are etch pits on the terraces, while the bright rows that run perpendicular to the terraces are Si dimer chains. The dimer chains consist of Si atoms released from terraces and step edges during etching [28],... Figure A3.10.10 STM image (55 x 55 mn ) of a Si(lOO) surface exposed to molecular bromine at 800 K. The dark areas are etch pits on the terraces, while the bright rows that run perpendicular to the terraces are Si dimer chains. The dimer chains consist of Si atoms released from terraces and step edges during etching [28],...
Figure A3.10.14 STM image of 0.25 ML Aii vapour-deposited onto Ti02(l 10). Atomie resolution of the substrate is visible as parallel rows. The Au elusters are seen to nueleate preferentially at step edges. Figure A3.10.14 STM image of 0.25 ML Aii vapour-deposited onto Ti02(l 10). Atomie resolution of the substrate is visible as parallel rows. The Au elusters are seen to nueleate preferentially at step edges.
Kuppermann A 1997 Reactive scattering with row-orthonormal hyperspherical coordinates. 2. [Pg.1003]


See other pages where Rowing is mentioned: [Pg.151]    [Pg.222]    [Pg.348]    [Pg.429]    [Pg.167]    [Pg.1029]    [Pg.1036]    [Pg.1038]    [Pg.276]    [Pg.304]    [Pg.460]    [Pg.460]    [Pg.460]    [Pg.489]    [Pg.603]    [Pg.32]    [Pg.41]    [Pg.90]    [Pg.159]    [Pg.161]    [Pg.292]    [Pg.299]    [Pg.566]    [Pg.690]    [Pg.825]    [Pg.926]    [Pg.927]    [Pg.935]    [Pg.936]    [Pg.950]    [Pg.1038]    [Pg.1075]   
See also in sourсe #XX -- [ Pg.131 , Pg.144 ]

See also in sourсe #XX -- [ Pg.665 , Pg.669 , Pg.1308 ]




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Activation by Second-Row Transition-Metal Atoms

Actomyosin Huxley, rowing model

Added rows

Anderson row

Basis Sets for Post-Third-Row Atoms

Between First-Row Transition Metals (Excluding Chromium)

Block metal chemistry the first row metals

Bonds to and between Higher Row Elements

Carbonyls, metal first row, structures

Column vectors in row space

Complexes of Second- and Third-Row Metals

Complexes of first row transition metals

Continuous-Row Reactors

Cooling towers are placed in a row at right angles to the prevailing winds

Cooling turbine blade rows

Databases, Schemas, Tables, Rows, and Columns

Deleting rows or columns

Detector rows

Diatomic Hydrides of First-row Atoms, AH

Diatomic molecules of second-row elements

Dimer rows

Distinct row table

Double rows

Elementary row operations

Elements first-row

Elements, second-row

Elements, second-row Periodic table

Essential Statistics for the Pharmaceutical Sciences Philip Rowe

Exercise rowing

Expert Systems in Pharmaceutical Product Development Raymond C. Rowe and Ronald J. Roberts

Fired heaters double rows

First and Second Row Molecules

First row anomaly

First row transition metal oxides

First- and Second-Row Anomalies

First-Row Transition Metal Elements Scandium to Manganese

First-Row Transition Metal Oxide Nanocomposites with Unusual Performance

First-row Metals

First-row atom

First-row d-block elements

First-row transition metal elements

First-row transition metal phosphides

First-row transition metal sulfides

First-row transition metals

First-row transition metals, electronic

First-row transition-metal methylene

From a Front Row Observer to the Aspiring CEO of an Academically Founded Startup

Heteronuclear Diatomics of Second-Row Elements

Homonuclear Diatomic Molecules of First-row Elements

Homonuclear diatomic molecules of later rows

Horizontal row

Hybridization Effects in First-row Hydrides

Hydrides of Second and Higher Rows, AH

Hypercoordinate Bonding to First-row Atoms

Inter-row cultivators

K-shell Auger lifetime variation in doubly ionized Ne and first-row hydrides

Latent row of hexagons

Linear matrix rows

Linear rows

Magnetic moments of first row transition

Magnetic moments of first row transition metal ions

Matrix row operations

Missing row

Missing row reconstruction

Missing row structure

Multi-detector row CT

Multi-detector-row computed tomography

Nozzle guide vane rows

Nucleation, row

Of first-row metals

Open cooling of turbine blade rows—detailed fluid mechanics and thermodynamics

Period A horizontal row of elements in the

Period A horizontal row of elements in the periodic

Period A horizontal row of elements in the periodic table

Periodic table first rows

Periodic table horizontal rows

Periods periodic table rows

Point row

Proper latent row

Pure column (or row) techniques

Purest row

ROW function

Reduced Row Echelon Form

Row Analysis

Row Driver Integration

Row Height...

Row Reduction and Systems of Linear Equations

Row System

Row covers

Row crystallization

Row decoder

Row echelon form

Row effects

Row eigenvectors

Row equivalent

Row matrix

Row nucleated structure

Row nucleated structure (cylindrites)

Row operations

Row pairing

Row problems

Row properties

Row reduced forms

Row scaling

Row space

Row vector

Row weeding

Row, defined

Row-closure

Row-eigenvector

Row-mean

Row-orthonormal

Row-pattern

Row-profile

Row-structure

Row-variable

Rowe rearrangement

Rowe, Hartley

Rowe, Nicholas

Rowe, Owen

Rowe, William

Rowing hypothesis, of muscle contractio

Rows

Rows and Columns

Rows method

Rows of Spots

Rows of the periodic table

Second row heteronuclear diatomics

Second row homonuclear diatomics

Second- and Third-Row Transition Metal Ions

Second-Row Homonuclear Diatomic Molecules

Second-and Third-Row Transition Metals

Second-row atom

Second-row transition metals

Skid row

Standard reduction potentials first row M2+ ions

Substitution Studies of Second- and Third-Row Transition Metal Oxo

Tables, Rows, and Columns

The First-Row Transition Metals

The Magnetochemistry of Homo- and Hetero-Tetranuclear First-Row

The Second-Row Diatomic Molecules

The octet rule first row p-block elements

Third-row elements

Third-row elements a case for expansion of the octet

Third-row transition metal hydrides

Third-row transition metals

Trivalent First-Row Transition Metal Ions

Uni- and Bivalent First-Row Transition Metal Ions

Useful Row Operations

Using Column Width and Row Height

Using Paste Special to Transpose Rows and Columns

Using a Row-Distributed Matrix

Using the ROW Function in Array Formulas

Vacancy rows

Warren Row

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