This tutorial shows you how to align a solar panel to recieve the most sunlight possible for a given latitude, using Ladybug's sunpath component and Grasshopper's vector cross product. Ladybug and Honeybee are open-source Grasshopper plugins designed for
- [Instructor] In the last video…we calculated the average sunlight vector…for this specific location…and I'd like to use that information…to figure out the best angle to mount a solar panel.…So I'm starting with the Rhino file Ladybug sun path.3dm…and I've gone ahead and turned on this…solar panel layer.…I can see right down here is my proposed solar panel site.…I've also got the Grasshopper file…0085 Ladybug sun path average finish.gh open…and to help me figure out the correct rotation…for my solar panel…I'm going to use a vector operation called the cross product…and that calculates a vector that's perpendicular…to two other vectors.…
Now I have this one vector already,…the average sun position,…and I'll need to calculate at least one other vector…to help get my mounting angle.…So let's go back to Grasshopper…and we'll setup some notes to help us as…we tweak our algorithm.…First thing I'll do is…just right click on the sun path component…and let's disable preview on that.…I don't need to necessary see all those sun positions.…
Author
Chris Reilly
Updated
10/26/2018Released
10/25/2017By the end of the course, you'll see how even basic literacy in Grasshopper can be applied to developing projects for art, manufacturing, architecture, and design.
- Working with algorithms
- Modeling a base profile
- Extruding elements
- Finishing an algorithm
- Planning for mass production
- Customizing Grasshopper
- Scripting with Python and Visual Basic .NET
- Modeling data with Ladybug
- Creating a tiling grid
- Tiling 3D objects
- Using reflection symmetry and mirroring to repeat tile
- Tessellating tile in any direction
Skill Level Beginner
Duration
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Introduction
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Welcome49s
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What’s new in Rhino 61m 39s
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1. Algorithmic Thinking
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Working with algorithms2m 34s
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Iteration and recursion5m 37s
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2. Modeling a Musical Instrument
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Introduction and file setup3m 41s
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Modeling the base profile6m 51s
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Modeling the top profile6m 15s
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Extruding the frets8m 29s
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Extruding the solid base8m 40s
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Extruding the solid top3m 41s
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Finishing the algorithm5m 12s
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Planning for mass production4m 39s
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3. Customizing Grasshopper
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Clusters9m 23s
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Add-ons and plugins2m 4s
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Python scripting10m 53s
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Visual Basic .NET scripting15m 27s
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4. Modeling Climate Data with Ladybug
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Vector review6m 31s
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Shadow study with Ladybug8m 36s
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Aligning shapes to vectors10m 28s
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5. Tiling and Tessalation
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Data tree review7m 47s
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Adding offsets for tiling7m 54s
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Tiling 3D objects12m 35s
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Truchet tile fundamentals3m 48s
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6. Simulation and Form-Finding with Kangaroo
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What is Kangaroo?1m 32s
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Installing Kangaroo5m 10s
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Exploring Kangaroo basics6m 20s
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Multi-goal simulations8m 14s
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Simulating tensile meshes3m 54s
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What are grid shells?1m 7s
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Simulating grid shells7m 3s
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Flexible anchor points8m 47s
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Measuring tolerances5m 48s
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Form-finding with Kangaroo4m 48s
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Conclusion
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Next steps54s
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Video: Optimizing solar panels with Ladybug and vector cross product