Complete issue (May 2012)
Date published

2 May 2012

Price

Standard: £15 + VAT
Members/Subscribers: Free

Back to Previous

Complete issue (May 2012)

Tag
Author
Date published
2 May 2012
Price

Standard: £15 + VAT
Members/Subscribers: Free

The Structural Engineer
Citation

The Structural Engineer, Volume 90, Issue 5, 2012, Page(s) 68

Date published

2 May 2012

Citation

The Structural Engineer, Volume 90, Issue 5, 2012, Page(s) 68

Price

Standard: £15 + VAT
Members/Subscribers: Free

All articles published in the May 2012 issue.



(NB Technical Guidance Note Level 1, No. 8 contained within this issue was updated in October 2016. For the updated article, see the individual article entry for this issue.)

Additional information

Format:
PDF
Pages:
68
Publisher:
The Institution of Structural Engineers

Tags

Issue 5

Related Resources & Events

The Structural Engineer
<h4>Regional Group Profile (South Eastern Counties)</h4>

Regional Group Profile (South Eastern Counties)

One of the Institution's largest Regional Groups places strong emphasis on CPD...

Date – 2 May 2012
Author – Various
Price – £10
The Structural Engineer
<h4>Verulam (readers' letters)</h4>

Verulam (readers' letters)

Topics of importance openly discussed...

Date – 2 May 2012
Author – Various
Price – £10
The Structural Engineer
<h4>Pull-out behaviour of axially loaded basalt fibre reinforced polymer (BFRP) rods bonded parallel to t</h4>

Pull-out behaviour of axially loaded basalt fibre reinforced polymer (BFRP) rods bonded parallel to t

This paper presents an experimental programme conducted to investigate the behaviour of bonded-in BFRP bars loaded parallel to the grain of glulam members. Tensile pull-out tests were conducted to examine the effect of bonded length and bond stress-slip on the structural capacity of the connection. An analytical design expression for predicting pull-out capacity is proposed and the results have been compared with some established design equations. It was found that pull-out load increased approximately linearly with the bonded length, up to maximum which occurred at a bonded length of 15 times the hole diameter, and did not increase beyond this bonded length. The most significant failure modes were failure at the timber/adhesive interface followed by pull-out of the BFRP rod. Increased bonded lengths resulted in higher bond slip values compared to lower equivalent bonded lengths. The proposed design model gave the best predictions of pull-out capacity compared with other existing models.

Date – 2 May 2012
Author – D. Yeboah, S. Taylor, D. McPolin and R. Gilfillan (Queen's University Belfast)
Price – £10