Sentence examples for fibre engineering from inspiring English sources

The aspects of glass preform fabrication for fibre engineering is discussed by emphasising the raw materials processing with casting of preforms and fibre fabrication.

We demonstrate the suitability of GeO2 for fibre engineering by compositional modifications of core and cladding glasses using the rod-in-tube technique, which have been matched for fibre drawing.

The early stages of microbuckle growth were captured on video, confirming the mechanisms of initiation and growth assumed by theoretical models of plastic microbuckling for compressive failure of long-fibre engineering composites.

The closed loop fibre technology is designed to place the fibres in an orientation and position where they will be of most benefit, thus reducing the likelihood of having fibres in concrete where they will not be of structural benefit and as a result of this, they will maximise the engineering qualities of the fibre addition.

The modern city has cellulose and synthetic-fibre industries, engineering facilities, and timber production, as well as its traditional textile industry.

The development of natural fibres in engineering applications requires the reliable and accurate assessment of their dimensional characteristics and mechanical properties.

In addition to using tissue specific promoters to reduce lignin in fibres only, engineering signaling pathways responding to cell wall defects may help reduce the yield penalty typically associated with lignin engineering.

Unlike engineering fibre composite materials which comprise of fibres that are uniform cylindrical in shape, collagen fibrils reinforcing the proteoglycan-rich (PG) gel in the extra-cellular matrices (ECMs) of connective tissues are taper-ended (paraboloidal in shape).

This work studies the possibility of compounding natural fibres (flax) into engineering plastics (PA6 and PB6) and comparing the results with counterpart glass fibre composites.

In order to investigate the influences of bagasse fibres on the engineering behaviour of expansive soil, varying proportions of randomly distributed bagasse fibres of 0.5%, 1.0%, and 2.0% were added to expansive soil and hydrated lime-expansive soils mixed with different bagasse fibre proportions were also investigated.

M5 outclasses most other engineering fibres and its compressive strength must be considered high for a polymeric fibre, with values as high as 1750 MPa derived from three-point bending tests.