Are elements 112, 114, and 118 relatively inert gases?

Kenneth S. Pitzer

doi:10.1063/1.431398

The Solidified Inert Gases as Model Substances

Zeitschrift für Physikalische Chemie ◽

10.1524/zpch.1958.16.3_6.267 ◽

1958 ◽

Vol 16 (3_6) ◽

pp. 267-276 ◽

Cited By ~ 1

Author(s):

G. O. Jones

Keyword(s):

Inert Gases ◽

Model Substances

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MEASUREMENT OF BLOOD FLOW WITH FREELY DIFFUSIBLE INDICATORS AS INERT GASES, ANTIPYRINE, LABELLED WATER AND RUBIDIUM

Acta Endocrinologica ◽

10.1530/acta.0.069s095b ◽

1972 ◽

Vol 68 (2_Supplb) ◽

pp. S95-S111 ◽

Cited By ~ 9

Author(s):

Niels A. Lassen ◽

Ole Andrée Larsen

Keyword(s):

Blood Flow ◽

Flow Measurement ◽

Capillary Wall ◽

Inert Gases ◽

Tissue Blood Flow ◽

Blood Flow Measurement

ABSTRACT Indicators which freely cross the capillary wall can be used for measurement of tissue blood flow in many different ways. Basically one can distinguish two categories of methods, viz. the ones where the indicator enters the tissue via the inflowing blood and the ones where the indicator is deposited locally in the tissue. The most important methods are briefly described with special emphasis on the theory of blood flow measurement.

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The wetted area fraction of dropwise condensation with inert gases and drop drainage

10.1615/ihtc12.5450 ◽

2002 ◽

Author(s):

F.L.A. Ganzevles ◽

Cees W. M. van der Geld

Keyword(s):

Area Fraction ◽

Inert Gases ◽

Dropwise Condensation ◽

Wetted Area

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Interaction of Ba Atoms and Ba(+) Ions with Inert Gases

10.21236/ada233612 ◽

1991 ◽

Author(s):

Keith D. Bonin ◽

Will Happer

Keyword(s):

Inert Gases

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Pepsin inactivation by inert gases

Journal of the Franklin Institute ◽

10.1016/0016-0032(52)90932-0 ◽

1952 ◽

Vol 254 (4) ◽

pp. 344

Author(s):

George M. Naimark ◽

William A. Mosher

Keyword(s):

Inert Gases

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Effects of hydrostatic pressure and inert gases on platelet aggregation in vitro

Journal of Applied Physiology ◽

10.1152/jappl.1990.69.6.2239 ◽

1990 ◽

Vol 69 (6) ◽

pp. 2239-2247 ◽

Cited By ~ 5

Author(s):

D. M. Pickles ◽

D. Ogston ◽

A. G. Macdonald

Keyword(s):

Platelet Aggregation ◽

Hydrostatic Pressure ◽

Maximum Degree ◽

Platelet Rich Plasma ◽

Control Level ◽

Inert Gases ◽

Partial Pressures ◽

Compression Cycle ◽

Anesthetic Potency

A novel cuvette was used to subject citrated platelet-rich plasma (PRP) to high hydrostatic pressure with negligible contamination by He (used for compression of the apparatus). Aggregation was induced at pressure by ADP and quantified turbidimetrically. The maximum degree of aggregation (MDA) was reduced from a control level of 82.2 to 53.6% by exposure to 101 ATA. Because decompression bubbles did not form, aggregation was also measured immediately after a compression cycle. After exposure to 101 ATA hydrostatic pressure, platelets responded normally to ADP at 1 ATA. In a matching apparatus, PRP was equilibrated with high partial pressures of inert gases. Normal physiological plasma Po2 and pH were maintained during equilibration. N2O (5 ATA) reduced the MDA from 86.5 (control) to 58.1%. N2 (51 ATA) reduced the MDA from 74.7 (control) to 51.6%, and 101 ATA Pn2 reduced the MDA from 78.0 (control) to 32.3%. He (100 ATA) reduced the MDA from 83.6 to 38.6%. It was concluded that platelet aggregation was relatively sensitive to hydrostatic pressure and less sensitive to inert gases than predicted from their anesthetic potency ratios.

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