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1 | 1 | # Direct Conversion from Rhino to OpenStudio |
2 | 2 | If you want to conduct all of your energy performance simulations in the OpenStudio software itself and need the OSM file, here is a direct way to obtain it through Grasshopper environment. |
3 | 3 |
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4 | | - |
5 | | - |
6 | 4 | ## Components Used |
7 | | -Geometry ([3.6.2](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/02_2_shoebox_p2.html#create-a-geometry-component)), HB Room from Solid, HB Model, HB Model to OSM, Panel ([3.5.2](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/02_2_shoebox_p2.html#create-a-geometry-component)) |
| 5 | +Geometry ([2.6.2](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/02_2_shoebox_p2.html#create-a-geometry-component)), HB Room from Solid ([2.7.2](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/02_2_shoebox_p2.html#create-rooms-solid-component)), HB Model ([2.7.5](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/02_2_shoebox_p2.html#create-model)), HB Model to OSM ([3.1.1](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/03_1_simulation_p1.html#model-to-osm-component)), Boolean Toggle, Panel ([2.5.2](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/02_1_shoebox_p1.html#place-your-first-component)) |
8 | 6 |
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9 | | -## Conversion Breakdown |
| 7 | +## Step-by-Step Breakdown |
10 | 8 | 1. Download Rhino8 and then Pollination as referenced in [module 2](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/02_shoebox.html). Find your weather file as shown in [1.3.1](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/01_1_climate_p1.html#get-weather-file). |
11 | 9 | 2. Open your model in the Rhino application. Open Grasshopper like in [2.5.1](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/02_1_shoebox_p1.html#open-grasshopper-from-rhino-by-clicking-the-circled-green-icon). |
12 | | -3. Recreate the [components](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/08_open_studio.html#components-used) as shown in the image below. |
| 10 | +3. Use the following [components](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/08_open_studio.html#components-used). |
| 11 | + |
| 12 | +### Recreate as shown in the image below. |
13 | 13 | ```{image} ../_static/start/conversion2osm.png |
14 | 14 | :width: 100% |
15 | 15 | :align: center |
16 | 16 | ``` |
17 | 17 | <br/><br/> |
| 18 | + |
| 19 | +5. Set your "Geometry" component as demonstrated in [2.7](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/02_2_shoebox_p2.html#set-one-geometry). If you have multiple zones, select _Set Multiple Geometries_ and take care with naming them for work clarity. Connect all your geometries to a "HB Room from Solid" component. |
| 20 | +6. Wire the output rooms to the input rooms_ of a new component, "HB Model." |
| 21 | +7. Bring in a "HB Model to OSM" component to convert the model to an OSM file. |
| 22 | +8. Use a "Panel" to paste the [path](https://cooperunion.github.io/buildingenergymodeling_workshops/docs/02_2_shoebox_p2.html#set-one-geometry) to your downloaded weather file, then connect it to the _epw_file input of ModeltoOSM. This contains data about the climate of where your model is for environmental analysis. |
| 23 | +9. Create a Boolean Toggle and double-click on False to switch to True. Wire it to both the _write and run input of ModeltoOSM. |
| 24 | + |
| 25 | + |
18 | 26 |
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