Loading...

Literature Review

The Global Heat Flow Database (GHFDB) is committed to maintaining the highest standards of data quality. To achieve this, we have implemented a rigorous literature review process that ensures all datasets are thoroughly vetted before being made publicly available. To learn more about the review process and how you can contribute, please click the button below.

Geological Society of America Bulletin, 1955

Preliminary investigations of rock conductivity and terrestrial heat flow in southeastern Michigan

G.W. Leney, J.T. Wilson
No preview available

Eos, Transactions American Geophysical Union, 1955

Heat flow and depth of permafrost at Resolute Bay, Cornwallis Island, N. W. T., Canada

A.D. Misener

The program of diamond drilling carried out by the Dominion Observatory and the Meteorological Division, Department of Transport at Resolute Bay during the summers of 1950 to 1953 permitted the placing of thermistors at various intervals to a maximum depth of 650 ft. The thermal conductivity of core samples was determined by the divided-bar method. The average conductivity combined with the high reciprocal gradient (25.4 m/°C) give a value of the heat flow toward the surface of 2.9 ± 0.4 ? 10?6 calories cm?2 sec?1. Extrapolation of the temperature versus depth graph indicates that the permanently frozen region extends to …


Acta Geophysica Polonica, 1954

Temperatury wglebne i stopien geotermiczny w ciechocinku (in Polish)

E. Stenz
No preview available

Proceedings of the Royal Society of London. Series A. Mathematical and Physical Sciences, 1954

The flow of heat through the floor of the Atlantic Ocean

Edward C. Bullard
No preview available

Proceedings of the Physical Society, 1954

Heat flow in the Transvaal and Orange Free State

A.E. Carte
No preview available

American Journal of Science, 1954

Thermal conductivity, climatic variation, and heat flow near Calumet, Michigan

Francis S. Birch
No preview available

Australian Journal of Physics, 1953

Borehole temperature measuring equipment and the geothermal flux in Tasmania

G. Newstead, Antje E. Beck
No preview available

Eos, Transactions American Geophysical Union, 1952

Heat flow at Kirkland Lake

T. H. Leith

This is the first of a series of papers on heat flow in the Canadian Shield. The flow depends upon thermal conductivity and temperature gradient. The latter has been measured for the Kirkland Lake region by Misener who obtained a value of 0.0130°C/meter from many measurements in three local mines, extending over a length of two miles and depths of 7500 ft. The conductivities of specimens from the same points have been measured in the laboratory with an average value of 76.7 ± 1.0 × 10-4 cal/cm sec °C, resulting in a surface heat flow of 1.00 ± 0.02 cal/cm2 …


Nature, 1952

Heat Flow through the Floor of the Eastern North Pacific Ocean

Roger Revelle, Arthur E. Maxwell

THE flow of heat through the earth's crust has been measured many times at various continental locations, and is usually found to lie1 within 50 per cent of 1.2 × 10−6 cal. cm.−2 sec.−1. Because of the absence of granitic rocks, with their relatively high radioactivity, in the crust under the oceans, it has been suggested that the heat flow through the deep-sea floor might be considerably smaller; but the only data available from oceanic areas have been two measurements of the thermal gradient in deep-sea sediments reported by Pettersson from the Swedish Albatross expedition2.


GEOLOGIE EN MIJNBOUW, 1952

TEMPERATURE GRADIENT IN THE SOUTH-LIMBURG COAL FIELD (THE NETHERLANDS)

W. De Braaf, W. Maas
No preview available

Eos, Transactions American Geophysical Union, 1951

Terrestrial heat flow in Ontario and Quebec

A.D. Misener, L.G.D. Thompson, R.J. Uffen

From some 1000 measurements of true rock temperatures, correct to 0.1°F, made at various depths in eight regions of Ontario and Quebec, average vertical temperature gradients for each location were obtained. Thermal conductivity measurements involving the preparation of approximately 300 rock specimens collected near the points of temperature measurement were carried out using the divided-bar method. The terrestrial heat flow was computed for each region. The values obtained lie between 0.69 ? 10?6 and 1.05 ? 10?6 cal/cm2/sec. Statistical analysis and rejection criteria were employed to determine the best values and probable errors of the calculated heat flows. It was …


Geophysical Journal International, 1951

Terrestrial heat flow in England

Edward C. Bullard, E.R. Niblett
No preview available

Geological Society of America Bulletin, 1950

Flow of heat in the Front Range, Colorado

Francis S. Birch
No preview available

Dokl. Academy of Sciences of the USSR, 1949

Termicheskie anomalii Ishimbajskih mestorozhdenij (Thermal anomalies of the Ishimbay deposits )

S.S. Kovner
No preview available

Can. Min. Metall. Bull., 1949

Temperature gradients in Canadian shield

A D Misener
No preview available

Economic Geology, 1948

Geothermal gradients, recent climatic changes, and rate of sufide oxidation in the San Manuel district, Arizona

T.S. Lovering
No preview available

Geophysical Supplements to the Monthly Notices of the Royal Astronomical Society, 1947

Terrestrial heat flow in Persia

H.P. Coster
No preview available

American Journal of Science, 1947

A heat flow value for a well in California

A.E. Benfield
No preview available

American Journal of Science, 1947

Temperature and heat flow in a well near Colorado Springs

Francis S. Birch
No preview available

Proceedings of the Royal Society of Edinburgh, 1940

The Loss of heat by conduction from the Earth's Crust in Britain

E.M. Anderson
No preview available