Skip to main content
Advertisement
Browse Subject Areas
?

Click through the PLOS taxonomy to find articles in your field.

For more information about PLOS Subject Areas, click here.

< Back to Article

Table 1.

Properties of wooden members.

More »

Table 1 Expand

Fig 1.

2-panel design of T-shaped wooden racking structure for grape farms.

More »

Fig 1 Expand

Fig 2.

Side view along with dimensions.

More »

Fig 2 Expand

Fig 3.

Front view with dimensions.

More »

Fig 3 Expand

Fig 4.

4 panel design for T-shaped racking configuration.

More »

Fig 4 Expand

Fig 5.

Side view along with dimensions.

More »

Fig 5 Expand

Fig 6.

Front view along with dimensions.

More »

Fig 6 Expand

Fig 7.

Sloped T-shaped racking configuration.

More »

Fig 7 Expand

Fig 8.

Inverse Y racking configuration.

More »

Fig 8 Expand

Table 2.

BOM of 2-panels solar photovoltaic wood racking mechanical design for trellis-based agrivoltaics.

More »

Table 2 Expand

Table 3.

BOM of 4-panels solar photovoltaic wood racking mechanical design for trellis-based agrivoltaics.

More »

Table 3 Expand

Fig 9.

Flowchart describing the design process for wooden racks.

More »

Fig 9 Expand

Table 4.

Load combinations.

More »

Table 4 Expand

Table 5.

Unfactored properties of Spruce Pin Fir wood grades 1 & 2.

More »

Table 5 Expand

Table 6.

Resistance factors.

More »

Table 6 Expand

Table 7.

Factored mechanical properties of Spruce Pine Fir wood.

More »

Table 7 Expand

Table 8.

Resisting bending moment, shear force, tensile force and compressive force for different members of Spruce Pine Fir wood.

More »

Table 8 Expand

Fig 10.

Reactions on a) 2-panel Design and b) 4-panel Design.

More »

Fig 10 Expand

Fig 11.

Maximum Shear Force on Mid Joist for a) 2-panel Design and for b) 4-panel Design.

More »

Fig 11 Expand

Fig 12.

Maximum Bending Moment on Mid Joist for a) 2-panel Design and b) 4-panel Design.

More »

Fig 12 Expand

Fig 13.

Maximum Deflection on Mid Joist for a) 2-panel Structure and b) 4-panel Structure.

More »

Fig 13 Expand

Fig 14.

a) Reaction Forces on End Joist for 2-panel Structure and b) Reaction Forces on End Joist for 4-panel Structure.

More »

Fig 14 Expand

Fig 15.

a) Maximum Shear Force on Mid Joist for 920W Racking Design and b) Maximum Shear Force on Mid Joist for 1840W Racking Design.

More »

Fig 15 Expand

Fig 16.

a) Maximum Bending Moment on End Joist– 2-panel Design and b) Maximum Bending Moment on End Joist– 4-panel Design.

More »

Fig 16 Expand

Fig 17.

Maximum Deflection on End Joist a) 920W racking configuration and b) 1840W racking configuration.

More »

Fig 17 Expand

Fig 18.

Load distribution as well as the position of Supports for Beam Analysis a) 4-panel Design and b) 2-panel Design.

More »

Fig 18 Expand

Fig 19.

a) Reaction on 920W Structure Beam Supports and b) Reaction on 1840W Structure Beam Supports.

More »

Fig 19 Expand

Fig 20.

Shear Force Diagram for Beams for a) 2-panel Design and b) 4-panel Design.

More »

Fig 20 Expand

Fig 21.

Bending Moment Diagram for Beams for a) 4-panel Structure and b) 4-panel Structure.

More »

Fig 21 Expand

Fig 22.

Deflection on Beams of a) a 920W Racking Design and b) a 1840W Racking Design.

More »

Fig 22 Expand

Fig 23.

Truss analysis for 2-panel structure.

More »

Fig 23 Expand

Fig 24.

Truss analysis for 4-panel structure.

More »

Fig 24 Expand

Fig 25.

Truss analysis for sloped T-shaped racking configuration.

More »

Fig 25 Expand

Fig 26.

Truss analysis for inverse Y type racking design.

More »

Fig 26 Expand

Fig 27.

Sloped T-shaped PV racking.

More »

Fig 27 Expand

Fig 28.

Impact of different tilt angles on energy output in Kelowna, BC.

More »

Fig 28 Expand

Table 9.

Cost comparison of different types of wooden PV racks.

More »

Table 9 Expand

Fig 29.

Trellis columns used as the posts for solar PV mounting.

More »

Fig 29 Expand