Steel processing and conversion.

Publication suspended Feb.-Aug. 1933.

The treasure of the Oxus, with other objects from ancient Persia and India , bequeathed to the Trustees of the British museum by Sir Augustus Wollaston Franks ...

At head of title: Franks bequest.

Applied metallurgy for engineers.

Includes bibliographies and index.

Manufacturing engineering.

Includes bibliography.

Engineering manufacturing methods.

Includes bibliography.

The industrial arts of Scandinavia in the pagan time /

Cover title: Scandinavian arts.

Ten centuries of art. Its progress in Europe from the IXth to the XIXth century.

Architecture.--Sculpture.--Painting.--Metal work.--Ivory and wood carving.--Glass and pottery.--Textile fabrics.--Mosaic.

Oggetti artistici di metallo : esposizioni retrospettive e contemporanee di industrie artistiche : esposizione del 1886 /

Includes index.

Isolating the photovoltaic junction: atomic layer deposited TiO2-RuO2 alloy Schottky contacts for silicon photoanodes

We synthesized nanoscale TiO2-RuO2 alloys by atomic layer deposition (ALD) that possess a high work function and are highly conductive. As such, they function as good Schottky contacts to extract photogenerated holes from n-type silicon while simultaneously interfacing with water oxidation catalysts. The ratio of TiO2 to RuO2 can be precisely controlled by the number of ALD cycles for each precursor. Increasing the composition above 16% Ru sets the electronic conductivity and the metal work function. No significant Ohmic loss for hole transport is measured as film thickness increases from 3 to 45 nm for alloy compositions >= 16% Ru. Silicon photoanodes with a 2 nm SiO2 layer that are coated by these alloy Schottky contacts having compositions in the range of 13-46% Ru exhibit average photovoltages of 525 mV, with a maximum photovoltage of 570 mV achieved. Depositing TiO2-RuO2 alloys on nSi sets a high effective work function for the Schottky junction with the semiconductor substrate, thus generating a large photovoltage that is isolated from the properties of an overlying oxygen evolution catalyst or protection layer.

Modelling material transfer in metal rolling using plasticine

Plasticine strips are rolled between cylindrical rollers to model the phenomenon of material transfer in metal rolling. Strips of thin plastic film ('clingfilm') on the plasticine strip are used to model the oxide layer that covers the surface of aluminium. The effect of gaps opening up between the clingfilm strips is investigated. It is found that the percentage area of the exposed strip giving rise to transfer of material increases with the gap width. The evidence strongly suggests that plasticine particles transferred to the rolls are able to pick off plasticine from the strip on successive passes. Larger plasticine particles are more likely to show this behaviour and consequently grow in size. The results confirm the usefulness of plasticine as a suitable material to investigate transfer layer formation in metal rolling, and help inform development of experimental procedures to study the evolution of real metal transfer layers. © 2007 Elsevier B.V. All rights reserved.